Ring shaped inner sliding track and sliding block wind-driven engine with steadying line

[0096] In this specification, the "circular inner slide rail with stabilizer cable" is composed of two parallel rings. The stabilizer cable can be fixed on the two rings or on one of the rings. . The stabilizing cable can also be fixed on a support frame or a support ring that directly provides support for the two rings, and can provide tension to the two rings by connecting with the support frame or the support ring. The stabilizing cable can be provided on one side of the circular inner slide rail, or can be provided on both sides of the circular inner slide rail at the same time. Except that the planes determined by the two circular rings that make up the circular inner slide rail are parallel, the distance between any point on the side of each circular ring and the side of the other circular ring remains unchanged. One ring uses the inside to provide support and slide for the outside of the slider, and the other ring uses the outside to provide support and slide for the inside of the slider. Two parallel rings are generally on the same plane with a diameter. Two different rings are composed. In a combined circular inner slide rail slider air motor with stabilizer cables composed of more than two groups of circular inner slide rails with stabilizer cables, there can also be two parallel in different planes with the same diameter or Two different circular rings are composed of a circular inner slide rail with a stabilizer cable. The two rings are generally set on the same ring-shaped support frame as an integral ring-shaped inner slide rail with stabilizing cables, or they can be set on different supports to become separate ring-shaped inner slide rails with stabilizing cables. The ring of the circular inner slide rail with a stabilizer cable is generally a closed ring, and it can also be fixed to a ring-shaped support frame with a stabilizer cable at a certain interval or fixed to a ring bracket in a ring Rolling devices such as rollers or rollers on the upper surface, or other devices that can reduce friction in the known technology form a circular ring-shaped inner slide rail. The ring-shaped inner slide rail with stabilizer cables is the skeleton of the entire ring-shaped inner slide rail slider air motor with stabilizer cables. It is the connection part of the circular ring-shaped inner slide rail slider air motor with the stabilizer cable and the support frame and the support seat. Inside the circle is the operating space of the blades. The "slider" is embedded between two circular inner slide rails, which can utilize the supporting force and slide provided by the circular inner slide rail with stabilizer cable to make the circular ring with stabilizer cable The supporting force provided by the shaped slide rail is converted into the pulling force provided to the wind blade, and it is a component that can slide in a circular motion along the slideway provided by the circular inner slide rail with a stabilizing cable under the push of the wind blade. There are rollers and other rolling devices that can reduce friction between the contact surface of the slider and the outer ring-shaped inner slide rail with stabilizing cables and between the inner ring-shaped inner slide rail with stabilizing cables on the inner side, or known Other technical devices that can reduce friction. The slider can function normally when it becomes a ring-shaped slider through connected positioning or non-connected positioning. The "ring-shaped slider" refers to a state in which the sliders are positioned in a ring shape on a circular inner slide rail with a stabilizer cable at a stable distance. Generally, there are two methods of connected positioning and non-connected positioning. When using connection positioning, generally use the connection of the positioning bar to connect the slider into a ring-shaped slider, and use the pulling or supporting force of the positioning bar to maintain a stable distance between the sliders. In the combined circular slide rail with stabilizer cable composed of more than three circular slide rails with stabilizer cables, the positioning effect produced by the connection of the connecting rod and the fan blades is used to become a ring without positioning strips Slider. It can also be pre-fabricated with the positioning bar into a ring-shaped slider that has been connected and positioned in a ring shape. It can also be positioned as a ring-shaped slider in a non-connected way. The ring-shaped slider is generally a polygonal ring shape or a circular ring shape, and may also be a ring shape of other shapes. The so-called "positioning bar" is a component that uses pulling or supporting force to position the slider into a ring-shaped slider through connection. The positioning bar can be a rod, strip, or tube made of steel materials. It can also be a cord or thread made of flexible materials, or a tension spring or rubber strip made of elastic materials, or connected objects of other shapes and materials in well-known technology. The positioning bar generally does not contact the circular ring-shaped inner slide rail with stabilizing cables, nor is it connected to the fan blades and balance cables. The so-called "wind blade" is a component that connects one end to the sliding block and the other end to the center of the circle, which can generate power to push the sliding block to make a circular motion when subjected to the action of wind. Fan blades can be divided into two types: integral type and split type. The "embedded load" means that the two contact surfaces on the outer and inner sides of the slider are sandwiched between the two rings of the circular inner slide rail with stabilizing cables, and can follow the inner ring with stabilizing cables. The connection state of the slide rail sliding in a circular motion. The "center" refers to the center of the circle formed by the plane of the closed ring.

[0097] A preferred method of the circular ring-shaped inner slide rail slider air motor 90 with stabilizer cables according to claim 1 of the present invention is to use two parallel closed rings as the stabilizer cables 104 as shown in FIG. 1 Ring-shaped inner slide rail 10, three sliding blocks 201 embedded between the inner and outer portions of the circular ring-shaped inner slide rail 10 with stabilizing cables 104, connected by three positioning bars 70 to form a ring-shaped slide block 20. The ring-shaped slider 20 utilizes the supporting force of the circular ring-shaped inner slide rail 10 with the stabilizer cable 104 to provide tension for the three wind blades 30 whose one end is connected to the ring-shaped slider 20 and is located in the ring. At the same time, the sliding block 20 can slide in a circular motion along the circular ring-shaped inner sliding rail 10 with the stabilizing cable 104 under the push of the wind blade 30. The other end of the wind blade 30 is connected to the other wind blades 30 at the center of the circle, and the other wind blades 30 receive pulling forces from opposite directions each other, and the two ends of the wind blades 30 are straightened under the action of pulling forces in two opposite directions. The wind blade 30 can convert wind energy into mechanical energy only under the action of pulling force. When the circular inner slide rail slider air motor 90 with the stabilizer cable 104 is running, each slider 201 carries the wind blade 30 at the same angular velocity at one end connected to the slider 201, and surrounds the end at the center of the circle. Glide in a circular motion.

[0098]The plane of the circular inner slide rail 10 with the stabilizer cable 104 is perpendicular to the wind direction, and two parallel sides of the closed circular ring are connected together to form the circular inner slide rail 10 with the stabilizer cable 104. One side of the circular inner slide rail 10 with a stabilizer cable 104 is the space where the slider 201 is connected to the fan blade 30, and the other side is the connection of the circular inner slide rail 10 with a stabilizer cable 104 to the stabilizer cable 104 Location. The ends of the three stabilizing cables 104 connected to the annular inner slide rail are each divided into five separate stabilizing cables. By increasing the connection points, the force of each part of the annular inner slide rail 10 with the stabilizing cables 104 is more uniform. Inside the circle is the operating space of the wind blade 30. In order to reduce the friction when the slider 201 makes a circular motion, one pulley 80 is arranged on the outer side of each slider 201, and two pulleys 80 are arranged on the inner side. The stabilizer cable 104 and the shaded part are indicated by dashed lines in the figure.

[0099] The side of the partial cross-section of the circular inner slide rail slider air motor 90 with stabilizer cables in FIG. 1 is the two closed circular rings that form the circular inner slide rail 10 with stabilizer cables 104 as shown in FIG. 2 The sides are connected together to form an integral ring-shaped inner slide rail 10 with a stabilizing cable 104. One side of the annular inner slide rail 10 with a stabilizer cable 104 is the space where the annular slider 20 is connected to the blade 30, and the other side of the annular inner slide rail 10 with a stabilizer cable 104 is connected with the stabilizer cable 104 . In order to prevent the sliding block 201 from falling off and increase the supporting force of the circular inner slide rail 10 with the stabilizer cable 104, the side of the ring of the outer part of the circular slide rail 10 with the stabilizer cable is turned inward, and the inner side The sides of the parts are turned outwards and connected as a whole. The two rings are provided with grooves to prevent the ring-shaped slider 20 from falling off, and the outer and inner sides of the ring-shaped slider 20 embedded between the ring-shaped inner sliding rails 10 with the stabilizing cable 104 are provided with pulleys 80 , In order to reduce the friction when the annular slider 20 makes a circular motion. The connecting end of the ring-shaped slider 20 is connected to the fan blade 30 provided with an inverted T-shaped connecting rod at the connecting end. The lower part of the stabilizer cable 104 and the wind blade 30 are indicated by broken lines and omitted in the figure. The connection position of the positioning bar 70 is indicated by a dotted circle in the figure, and the stabilizing cable 104 and the blocked part are indicated by a dotted line in the figure.

[0100] The two circular rings that form the circular inner slide rail with a stabilizer cable provide support and tension for the sliding block on the inner side and the outer side, respectively. Except for the sliding rail and the side that provides the connecting end of the sliding block with an external connection space, the remaining parts of the two circular rings can be used as connecting parts with the support frame and the support seat.

[0101] The position of the transmission device arranged on the circular inner slide rail with the stabilizer cable can be concentrated in one place for output, or distributed in several places. That is, it can output mechanical energy, as well as electrical energy or other forms of energy.

[0102] The ring-shaped inner slide rail with stabilizing cable generally uses the ring-shaped rail to directly provide the supporting force and the slideway for the slider. The inner side of the slider contacts the outer side of the inner ring to obtain tensile force, and the outer side of the slider contacts the inner side of the outer ring to obtain supporting force. The slider is embedded between the two rings and slides along the ring in a circular motion.

[0103] When there is no anti-friction device on any ring of the circular inner slide rail with stabilizing cable, the slider should be equipped with rolling or sliding devices such as rollers or rollers on the corresponding contact surface to reduce friction. Or set up other well-known devices that can reduce friction.

[0104] The sliders can be used individually, each slider is connected to a fan blade or balance cable, the sliders can also be connected in groups, and each slider group is connected to multiple fan blades or balance cables. Each group is embedded in a ring with equal distance between the ring-shaped inner slide rails with stabilizing cables.

[0105] The methods for positioning the sliding block in a ring-shaped connection at a stable distance between the circular ring-shaped inner sliding rails with a stabilizer cable mainly include connection positioning and non-connection positioning.

[0106] The wind blade is generally a sheet-like object directly connected between the slider and the center of the circle. In addition, the flaps fixed on the cords and bars connecting the slider and the center of the circle can also become wind blades.

[0107] The connection between the fan blade and the sliding block can be accomplished by using a connection method of known technology, such as pre-setting reasonable pendants, connectors, plug-ins or other known technology connectors, which can make the connection more convenient and reliable.

[0108] The connection angle of the wind blade on the slider is one of the important factors for obtaining wind energy. It should be comprehensively balanced based on factors such as the strength of the wind turbine, the wind conditions of the specific place of use, and the safety factor adopted.

[0109] The wind blade is connected at the center of the circle to obtain the pulling force from the opposite direction. You can also set a connecting cable at the connecting end of the blade. The wind blade is connected with the opposite slider through the center of the circle, and the pulling force from the opposite direction can also be obtained. . Generally, the length of the blades cannot exceed the center of the circle. When the blades with short length are far from the center of the circle, as long as the extension cable does not deviate from the center of the circle, the circular inner slide slider air motor with stable cables can still be maintained well. Performance.

[0110] In this specification, the "balance cable" refers to a component connected to the slider at one end and connected to the wind blade and the balance cable at the other end at the center of the circle. Utilizing the tension of the balance cable can reduce the periodic influence of the circular inner slide rail with the stabilizer cable that is subjected to a large pressure when the slider passes and the pressure disappears after passing. The balance cable is generally a tension-resistant cable, and a rod, tube, bar, or other shapes of well-known technology can also be used as the balance cable.

[0111] A preferred mode of the circular ring-shaped inner slide rail slider air motor 91 with stabilizer cables according to claim 2 of the present invention is the outer side of the circular ring-shaped inner slide rail 11 with stabilizer cables 114 as shown in FIG. 3 A closed ring is partially used. The inner part of the circular inner slide rail 11 with a stabilizing cable 114 is a ring formed by a set of pulleys 81 arranged at a certain interval. The outer part and the inner part are parallel to each other and are arranged in a closed circle. A ring-shaped inner slide rail 11 of a stabilizing cable 114 is formed on the support frame of the ring. The six sliders 211 embedded between the inner part and the outer part of the circular inner slide rail 11 with stabilizing cables 114 are connected by six positioning bars 71 and positioned to form a ring-shaped slider 21. The ring-shaped slider 21 uses The supporting force of the annular inner slide rail 11 of the stabilizing cable 114 provides tension for the three wind blades 31 and the three balance cables 41 that are connected to the annular slider 21 at one end, and the annular slider 21 is at the same time It can slide in a circular motion along the circular ring-shaped inner slide rail 11 with the stabilizing cable 114 under the push of the wind blade 31. The other end of the fan blade 31 and the balance cable 41 is connected to the other fan blade 31 and the balance cable 41 at the center of the circle, and the other fan blades 31 and the balance cable 41 obtain the pulling force from the opposite direction. The two of the fan blade 31 and the balance cable 41 The ends are straightened under the action of pulling forces in two opposite directions. Therefore, the wind blade 31 can convert wind energy into mechanical energy only under the action of pulling force. When the circular inner slide rail slider air motor 91 with a stabilizer cable is running, each slider 211 carries the blade 31 and the end of the balance cable 41 connected to the slider 211 at the same angular velocity, and surrounds the center of the circle. One end of the position slides in a circular motion.

[0112] The plane of the circular inner slide rail 11 with a stabilizing cable 114 is perpendicular to the wind direction. The closed circular ring on the outer part and the circular ring formed by the pulleys 81 on the inner part are parallel to each other and are arranged on the support frame of the same closed circular ring. on. One side of the annular inner slide rail 11 with a stabilizer cable 114 is the connection space between the annular slider 21 and the wind blade 31 and the balance cable 41, and the other side is the annular inner slide rail with a stabilizer cable 114 and the stabilizer The connecting part of the cable 114 and the support frame and the support seat. Inside the ring is the operating space of the wind blade 31 and the balance cable 41. In order to reduce the friction when the sliding block 211 performs circular motion, a pulley 81 is arranged on the outer side of each sliding block 211, and the arc surface provided on the inner side facilitates sliding on the circular ring formed by the pulleys 81. The stabilizing cable 114 and the shaded part are indicated by dashed lines in the figure.

[0113] The various components of the circular inner slide rail slider air motor with stabilizer cables provided with balance cables have the same flexibility and functions as the circular inner slide rail slider air motor with stabilizers described in claim 1 Expansion capabilities.

[0114] The side surface of the partial cross-section of the circular inner slide rail slider air motor 91 with a stabilizer cable in FIG. 3 is a closed ring forming the outer part of the circular inner slide rail 11 with a stabilizer cable 114 as shown in FIG. 4 The inner part of the pulley 81 and the inner part of the pulley 81 are jointly arranged on the same closed ring support frame to form an annular inner slide rail 11 with a stabilizing cable 114. One side of the circular inner slide rail 11 with a stabilizer cable 114 is the space where the annular slider 21 is connected to the fan 31 and the balance cable 41, and the other side is the circular inner slide rail 11 with a stabilizer cable and the support The connecting part of the frame and the support base. In order to prevent the ring-shaped slider 21 from falling off, the outer closed ring is provided with a groove for preventing the ring-shaped slider 21 from falling off. The pulley 81 forming the inner part of the annular inner slide rail 11 with the stabilizer cable 114 and the outer side of the annular slider 21 embedded between the annular inner slide rail 11 with the stabilizer cable 114 are provided with a pulley 81, In order to reduce the friction when the annular slider 21 makes a circular motion. The connecting end of the ring-shaped slider 21 is connected to the fan blade 31 provided with a reverse L-shaped connecting rod at the connecting end. The lower part of the stabilizer cable 114 and the wind blade 31 are indicated by dashed lines and omitted in the figure. The position where the positioning bar 71 is connected is indicated by a dotted circle in the figure. The stabilizing cable 114 and the shaded part are indicated by dashed lines in the figure.

[0115] In this specification, the "connector" refers to a component that is set at the center of the circle and used to connect the stabilizer cable, the wind blade, and the balance cable. The outer circumference of the connector is generally provided with connecting pieces corresponding to the stabilizer cable, the wind blade, and the balance cable, which not only makes the connection more convenient and reliable, but also controls the connection angle of the wind blade. The connector for connecting the stabilizing cable and the connector for connecting the fan blade and the balance cable can be used alone or independently of each other at the same time. It is also possible to combine the connector connecting the stabilizer cable with the connector connecting the fan blade and the balance cable to form an integral connector, and simultaneously connect the fan blade, the balance cable, and the stabilizer cable. Since the stabilizing cable does not slide in circular motion with the wind blade and the balance cable, a freely rotatable shaft sleeve structure or other structure of the known technology should be adopted between the connector of the stabilizing cable and the connector of the wind blade and the balance cable. Generally, the connector of the stabilizer cable is used as the sleeve, and the connector of the fan blade and the balance cable is used as the shaft. The shaft can not only rotate freely in the sleeve, but also can be used as the mechanical energy output of the circular slide rail wind motor with the stabilizer cable when necessary. axis. It is also possible to use the connector of the stabilizer cable as the shaft, and the connector of the fan blade and the balance cable as a sleeve, and the sleeve can rotate freely on the shaft. The cross-sectional shape of the connector is generally circular or circular, and can also be other shapes that can be used to connect stabilizer cables, wind blades, and balance cables in publicly known technologies.

[0116] According to claim 3 of the present invention, a preferred mode of the circular inner slide rail slider air motor 93 with stabilizer cables is the inner side of the circular inner slide rail 13 with stabilizer cables 134 as shown in FIG. 5 The part and the outer part are each composed of a set of pulleys 83 arranged in a circular ring at a certain interval. The inner part and the outer part are parallel to each other, and are arranged on a closed circular support frame together to form a circular inner slide rail 13 with a stabilizing cable 134. Eight sliders 231 embedded between the inner and outer parts of the circular ring-shaped inner slide rail 13 with stabilizing cables 134 are connected by eight positioning bars 73 and positioned to form a ring-shaped slider 23, which is a ring-shaped slider 23. Utilizing the supporting force of the circular inner slide rail 13 with the stabilizing cable 134, the four wind blades 33 and the four balance cables 43, which are connected to the annular slider 23 at one end and located in the ring, provide tension, and the ring slides At the same time, the block 23 can slide in a circular motion along the circular inner slide rail 13 with the stabilizing cable 134 under the push of the wind blade 33. The other end of the wind blade 33 and the balance cable 43 is connected to the other wind blade 33 and the balance cable 43 through a connector 53 arranged at the center of the circle, and the other wind blades 33 and the balance cable 43 obtain the pulling force from the opposite direction. 33 and the two ends of the balance cable 43 are straightened under the action of pulling forces in two opposite directions. The wind blade 33 can convert wind energy into mechanical energy only under the action of pulling force. The other end of the stabilizing cable 134 is connected to the other stabilizing cable 134 through the connector 135 arranged at the center of the circle, and the other stabilizing cable 134 obtains the pulling force from the opposite direction, and the two ends of the stabilizing cable 134 pull in opposite directions. The bottom is straightened. When the circular inner slide rail slider air motor 93 with a stabilizer cable is running, each slider 231 carries the wind blade 33 at the same angular velocity at one end connected to the slider 231, and works around the end at the center of the circle. Circular motion sliding

[0117]The plane of the circular inner slide rail 13 with a stabilizing cable 134 is perpendicular to the wind direction, and consists of two sets of pulleys 83 arranged in a circular ring at a certain interval. The two circular rings are parallel to each other and are arranged on the same closed circular support. Shelf. One side of the circular inner slide rail 13 with a stabilizer cable 134 is the space where the slider 231 is connected to the fan blade 33 and the balance cable 43, and the other side is the circular inner slide rail 13 with a stabilizer cable 134 and the stabilizer cable. 134 and the connecting part of the support frame and the support seat. Inside the circle is the operating space of the wind blade 33. In order to reduce the friction when the slider 231 makes a circular motion, the arc surfaces provided on the inner and outer sides of each slider 231 facilitate sliding on the pulleys 83 arranged in a circular ring. The stabilizing cable 134 and the shaded part are indicated by dashed lines in the figure.

[0118] The various components of the circular inner slide rail slider air motor with stabilizing cables provided with connectors and balance cables have the same flexibility and function expansion as the circular inner slide rail slider air motor according to claim 1 ability.

[0119] The side surface of the partial cross-section of the circular inner slide rail slider air motor 93 with a stabilizer cable in FIG. 5 is the inner part and the outer part of the circular inner slide rail 13 with a stabilizer cable 134 as shown in FIG. 6 The pulleys 83 are arranged in a circular ring on the same closed circular support frame with a "T"-shaped cross section, forming a circular inner slide rail 13 with a stabilizing cable 134. One side of the ring-shaped inner slide rail 13 with a stabilizer cable 134 is the space where the ring-shaped slider 23 is connected to the fan blade 33, and the outside of the "T"-shaped closed ring on the other side is the part connected to the support frame. The two sides of the outer side of the "T"-shaped closed ring are connected to the stabilizing cable 134. In order to prevent the ring-shaped slider 23 from falling off, the inner and outer sides of the ring-shaped slider 23 are provided with grooves to prevent falling off. The pulleys 83 forming the inner part and the outer part of the annular inner slide rail 13 with the stabilizing cable 134 can reduce the friction when the annular slider 23 makes a circular motion. The connecting end of the ring-shaped slider 23 is connected to the fan blade 33 provided with an inverted T-shaped connecting rod at the connecting end. The connector 135 connected to the stabilizer cable 134 is a sleeve, and the connector 53 connected to the fan blade 33 and the balance cable 43 is a shaft. The connector 53 is embedded in the connector 135. The connector 53 can not only rotate freely in the connector 135, but also It can also be used as the mechanical energy output shaft of the circular slide rail wind motor 93 with stabilizing cables. The middle part of the stabilizer cable 134 and the wind blade 33 is omitted in the figure with two broken lines. The stabilizing cable 134 and the shaded part are indicated by dashed lines in the figure. The position where the positioning bar 73 is connected is indicated by a dotted circle.

[0120] In this specification, the "combined ring-shaped inner slide rail with stabilizer cables" refers to a ring-shaped inner slide rail with stabilizer cables composed of two or more parallel ring-shaped inner slide rails with stabilizer cables. The slide rail combination, each of the circular inner slide rails with the stabilizer cable forming the combined circular inner slide rail with the stabilizer cable together provides a supporting surface and a sliding track for the same group of combined circular sliders. The so-called "parallel annular inner slide rails with stabilizing cables" means that the respective annular inner slide rails with stabilizing cables are not only parallel to each other, but also at any point on the side of each ring. The distance between the sides of the other rings remains unchanged. The "combined slide block" refers to a combination of slide blocks that are embedded between different circular inner slide rails to provide pulling force for the same blade or group of wind blades and balance cables. The sliding blocks are generally connected by connecting rods to form a combined sliding block. It can also be connected to a combined sliding block by a connecting rod provided on the connecting end of the fan blade and the balance cable, or connected to form a combined sliding block by other methods of well-known technology. Piece. When the combined-type circular ring-shaped inner slide rail slider air motor with stabilizer cables is running, each slider that composes the combined-type slider slides in a circular motion at the same angular velocity. The "span rail embedded load" means that the individual sliders that make up the combined slider are embedded and loaded between their respective circular inner slide rails with stable cables, and the combined sliders formed by connecting them together form a span. The state where the rail is embedded on two or more different circular inner slide rails with stabilizing cables. The "connecting rod" refers to the sliders that can be embedded between different circular inner slide rails with stabilizing cables to connect them into a combined slider and maintain a stable distance between the sliders. The relative position of the connecting object is generally a rod-like object, a tube-like object, a strip-like object, or other shapes of known technology. The connecting rod can be used alone, or two or more connecting rods can be used in a group, or combined into a connecting frame. The connecting rod can also be used on the connecting end of the wind blade and the balance cable.

[0121] According to claim 4 of the present invention, a preferred method of the circular ring-shaped inner slide rail slider air motor 94 with stabilizer cables is as shown in FIG. 7 is to use two mutually parallel sides with stabilizer cables 144 The circular inner slide rail 141 constitutes a combined circular inner slide rail with stabilizer cables. Each circular inner slide rail 141 with a stabilizer cable 144 is composed of two parallel circular rings, each with eight embedded The slider 2411 carried between the annular inner slide rails 141 with the stabilizer cable 144 is positioned as an annular slider 241, which is embedded in the ring between two different annular inner slide rails with the stabilizer cable 144 The sliding block 241 is connected by a connecting rod to form a combined ring-shaped sliding block. The combined ring-shaped sliding block uses the supporting force of the combined ring-shaped inner slide rail with a stabilizer cable to connect one end of the same group to the combined ring-shaped sliding block. On the block, the eight wind blades 34 located in the ring provide pulling force, and the combined annular slider can slide in circular motion along the combined circular inner slide rail with stabilizer cables under the push of the wind blades 34. The other end of the wind blade 34 is connected to the other wind blades 34 through a connector 54 located at the center of the circle, and mutually obtains the pulling force from the opposite direction from the other wind blades 34, and the two ends of the wind blade 34 pull in opposite directions. The bottom is straightened. The wind blade 34 can convert wind energy into mechanical energy only under the action of pulling force. The other end of the stabilizing cable 144 is connected to the other stabilizing cable 144 by connecting the connector 145 arranged at the center of the circle, and the other stabilizing cable 144 obtains the pulling force from the opposite direction. The two ends of the stabilizing cable 144 pull in opposite directions. The bottom is straightened. When the combined circular inner slide rail slider air motor 94 with stabilizer cables is running, each slider 2411 carries the blade 34 at the same angular velocity and is connected to one end of the combined circular slider, surrounding the One end at the center of the circle slides in a circular motion.

[0122] The plane of the circular inner slide rail slider air motor 94 with stabilizing cables is perpendicular to the wind direction. Each ring-shaped inner sliding rail 141 with a stabilizing cable 144 is composed of two parallel rings with grooves. Two circular inner slide rails 141 with stabilizing cables 144 are jointly arranged on the same closed circular ring support frame to form a combined circular inner slide rail. Inside the circle is the operating space of the wind blade 34. The pulleys 84 arranged on the inner and outer sides of each sliding block 2411 are beneficial to reduce friction when the sliding block 2411 makes a circular motion. The stabilizing cable 144 and the shaded part are indicated by dashed lines in the figure.

[0123] The components of the combined circular inner slide rail slider air motor with stabilizer cables composed of two mutually parallel circular inner slide rails with stabilizer cables have the circle with stabilizer cables described in claim 1 The same flexibility and functional expansion capabilities of the circular inner slide rail slider air motor.

[0124] The side of the partial cross-section of the combined circular inner slide rail slider air motor 94 with stabilizer cables in FIG. 7 is the combined circular inner slide rail 14 with stabilizer cables as shown in FIG. 8 is composed of two The parallel side is composed of an annular inner slide rail 141 with a stabilizing cable 144, and two annular inner slide rails 141 with a stabilizing cable 144 on one side are arranged opposite to each other on the side connected to the wind blade 34. Two ring-shaped sliding blocks 241 respectively embedded on two circular ring-shaped inner sliding rails 141 with stabilizing cables 144 on one side form a combined ring-shaped sliding block 24. Each ring-shaped slider 241 is provided with rollers 84 on the outer and inner contact surfaces of the annular inner sliding rail 141 with a stabilizing cable 144 on one side. There are grooves on the contact surface of the outer part and the contact surface of the inner part of the circular inner slide rail 141 with a stabilizing cable 144 on each side, and the width of the connecting end of the wind blade 34 corresponds to the two rings. The connecting frame 104 of the distance between the two ring-shaped sliders 241 is directly connected to the two ring-shaped sliders 241, and the fan blade 34 is provided on the connecting end of the fan blade 34 while obtaining the pulling force from the ring-shaped slider 241. 104 connects two ring-shaped sliding blocks 241 to form a combined ring-shaped sliding clamp 24. The connector 145 connected to the stabilizer cable 144 is used as a shaft, and the connector 54 connected to the fan blade 34 is used as a sleeve, so that the connector 54 can rotate freely on the connector 145. The middle part of the stabilizer cable 144 and the wind blade 34 is omitted in the figure with two broken lines. The stabilizing cable 144 and the shaded part are indicated by dashed lines in the figure. The position where the positioning bar 74 is connected is indicated by a dotted circle.

[0125] 9 is a schematic diagram of the connection of the combined annular inner slide rail slider air motor 94 with stabilizer cables shown in FIG. 7, in which the inner side of the combined annular inner slide rail 14 with stabilizer cables 144 is oriented toward Observer. As shown in FIG. 9, the combined annular inner slide rail 14 with stabilizer cables 144 is composed of two parallel annular inner slide rails 141 with stabilizer cables 144, which are respectively embedded in two stabilizer cables. The two sets of sliders 2411 on the circular ring-shaped inner slide rail 141 of 144 are positioned and connected by two sets of positioning bars 74 to form two ring-shaped sliders 241, and the two ring-shaped sliders 241 are arranged on three connecting ends. The fan blade 34 with the connecting frame 104 and the two sets of connecting rods 104 are connected to form a combined annular slider 24. The connection position and the shielded part of the wind blade 34 are indicated by dashed lines in the figure. The connection position of the stabilizer cord 144 is indicated by a dotted circle in the figure.

[0126] The sides of the two circular slide rails with stabilizing cables where the sliding clips are connected to the wind blades can be arranged opposite, opposite or opposite or in the same direction. Regardless of the setting, the position of the stabilizing cable, the support frame or the support seat cannot prevent the circular sliding clamp, the fan blade and the balance cable from sliding in a circular motion.

[0127] A preferred mode of the circular inner slide rail slider air motor 96 with stabilizing cables according to claim 5 of the present invention is four parallel inner rails with stabilizing cables 164 as shown in FIG. 10 The slide rails 161 form a combined circular inner slide rail with a stabilizer cable. Each circular inner slide rail 161 with a stabilizer cable 164 is composed of two parallel rings, each of which has eight embedded in the stabilizer cable. The sliding block 2611 between the circular inner sliding rails 161 of the 164 is positioned as an annular sliding block 261. The four ring-shaped sliders 261 embedded between the circular inner slide rails 161 with stabilizer cables 164 are connected by connecting rods to form a combined ring-shaped slider. The combined ring-shaped slider uses a combined type with stabilizer cable. The supporting force of the circular inner slide rail is connected to the combined ring slider at one end, and the four fan blades 36 and the four balance cables 46 located in the ring provide pulling force. The combined ring slider is at the same time It can slide in a circular motion along a combined circular ring-shaped inner slide rail with a stabilizer cable under the push of the wind blade 36. The other ends of the wind blade 36 and the balance cable 46 are connected to the other wind blades 36 and the balance cable 46 through a connector 56 arranged at the center of the circle, and the other wind blades 36 and the balance cable 46 mutually obtain pulling forces from opposite directions. The two ends of the wind blade 36 and the balance cable 46 are straightened under the action of pulling forces in opposite directions, so that the wind blade 36 can convert wind energy into mechanical energy only under the action of the pulling force. The other end of the stabilizer cable 164 is connected to the other stabilizer cable 164 through a connector 165 arranged at the center of the circle, and the other stabilizer cable 164 obtains the pulling force from the opposite direction. The two ends of the stabilizer cable 164 pull in opposite directions. The bottom is straightened. When the circular inner slide rail slider air motor 96 is running, each slider 2611 carries the fan blade 36 and the balance cable 46 at the same angular velocity at one end connected to the combined ring slider, surrounding it at the center of the circle One end slides in a circular motion. The rollers 86 provided on the contact surface of the annular slider 261 with the outer part and the inner part of the circular ring-shaped inner slide rail 161 with stabilizing cables can reduce friction during operation.

[0128] The plane of the circular inner slide rail slider air motor 96 with stabilizing cables is perpendicular to the wind direction. Each ring-shaped inner sliding rail 161 with a stabilizing cable 164 is composed of two parallel rings with grooves. Four circular inner slide rails 161 with stabilizing cables 164 are jointly arranged on the same closed circular support frame to form a combined circular inner slide rail. Inside the circle is the running space of the wind blade 36 and the balance cable 46. The four circular inner slide rails 161 with stabilizing cables 164 have different orientations on the side connected to the wind blade 36, and the other side is connected with a closed circular support frame. Stabilizing cables 164 are provided on the windward and leeward sides of the closed circular support frame. The pulleys 86 provided on the inner and outer sides of each slider 261 help reduce friction when the slider 261 moves in a circular motion. The stabilizing cable 164 and the blocked part are indicated by dashed lines in the figure.

[0129]Each component of the combined circular ring-shaped inner slide rail slider air motor with stabilizer cables is composed of three or more sets of mutually parallel circular ring-shaped inner slide rails with stabilizer cables, and has the circle with stabilizer cables described in claim 1 The same flexibility and functional expansion capabilities of the circular inner slide rail slider air motor.

[0130] The side of the part of the cross section of the combined circular inner slide rail slider air motor 96 with stabilizer cables 164 in FIG. 10 is the combined circular inner slide rail 16 with stabilizer cables as shown in FIG. 11 is composed of four It is composed of two parallel circular inner slide rails 161 with stabilizing cables 164. Each side of the circular inner slide rail 161 with stabilizing cables 164 connected to the wind blade 36 faces differently, and the four are respectively embedded in the four The ring-shaped slider 261 on the circular ring-shaped inner slide rail 161 with the stabilizer cable 164 forms a combined ring-shaped slider 26. Rollers 86 are provided on the contact surfaces of each ring-shaped slider 261 with the outer part and the inner part of the circular ring-shaped inner slide rail 161 with the stabilizer cable 164. The contact surface of the outer part and the inner part of each ring-shaped inner slide rail 161 with a stabilizing cable 164 are provided with grooves, and the width of the connecting end of the wind blade 36 corresponds to the four ring-shaped slides. The connecting frame 106 of the distance between the blocks 261 is directly connected to the four ring-shaped sliders 261 embedded on the four groups of the circular inner slide rails 161 with the stabilizing cables 164, and the fan blades 36 are in the ring-shaped slider. While 261 gains the pulling force, the connecting frame 106 arranged on the connecting end of the fan blade 36 connects the four ring-shaped sliding blocks 261 into a combined ring-shaped sliding clamp 26. The connector 165 connected to the stabilizer cable 164 is used as a shaft, and the connector 56 connected to the fan blade 36 and the balance cable 46 is used as a sleeve, so that the connector 56 can rotate freely on the connector 165. The middle part of the stabilizing cable 164 and the wind blade 36 is omitted in the figure with two broken lines. The connection position of the arc-connected stabilizing cable 164 and the positioning bar 76 is indicated by a dotted circle. The stabilizing cable 164 and the shaded part are indicated by dashed lines in the figure.

[0131] FIG. 12 is a schematic diagram of the connection of the combined circular inner slide rail slider air motor 96 with a stabilizer cable 164 shown in FIG. 10, and the inner side of the combined circular inner slide rail 16 with a stabilizer cable 164 is shown in the figure. Towards the observer. The combined annular inner slide rail 16 with stabilizer cables as shown in FIG. 12 is composed of four parallel annular inner slide rails 161 with stabilizer cables 164, which are respectively embedded in the four stabilizer cables 164. Among the four sets of sliders 2611 on the circular inner slide rail 161, the two sets of slide blocks 2611 respectively embedded on the two circular inner slide rails 161 with stabilizing cables 164 at the two ends are positioned by the two sets The strip 76 is positioned as two annular sliders 261, which are embedded in the two sets of sliders 2611 on the two circular inner slide rails 161 with stabilizing cables 164 in the middle. Due to the connection provided on the connecting end of the fan blade 36 The positioning function of the frame 106 is naturally positioned as two ring-shaped sliding blocks 261. The four ring-shaped sliders 261 are positioned between the two sets of connecting rods 106 with different lengths and the fan blades 36 provided with the connecting frame 106 on the connecting ends to form a combined ring-shaped slider 26. The arc-connected stabilizing cable 164 and the connecting position and the shielded part of the wind blade 36 are indicated by dashed lines in the figure. The connection position of the balance cable 46 and the stabilizer cable 164 is indicated by a dotted circle in the figure.

[0132] Although there is no limit to the number of annular inner slide rails with stabilizer cables that form a combined annular inner slide rail with stabilizer cables, generally 36 groups or less are appropriate. Generally, the diameters of the ring-shaped inner slide rails with stabilizing cables are the same, and they can also be composed of the ring-shaped inner slide rails with stabilizing cables with different diameters. Generally, the distances between the circular inner slide rails with stabilizing cables are the same, but the distances may also be different. Since the pressure on the inner ring of the ring-shaped inner slide rail with stabilizer cables is greater than the pressure on the outer ring, the combined type composed of two or more ring-shaped inner slide rails with stabilizer cables is stable In the circular inner slide rail slider air motor of the cable, it is possible to reduce or merge a part of the outer ring of the circular inner slide rail with the stabilizer cable, which can simplify the combined circular inner slide rail with the stabilizer cable The mechanical structure of the slider air motor can also reduce the cost.

[0133] There are many ways to connect the ring-shaped sliders embedded on two or more different circular inner slide rails with stabilizer cables. Generally, it is only necessary to embed them on different circular inner slide rails with stabilizer cables. Above, each select three or more sliders arranged in a ring or connect the parts with connecting rods to maintain a stable relative position to form a combined ring slider. The slider that is not connected by the connecting rod can be directly connected with the wind blade and the balance cable, and the positioned ring-shaped slider can also slide in a circular motion at the same angular velocity as other sliders.

[0134] It is also possible to implement a fan blade and a connecting rod provided at the connecting end of the fan blade and the balance cable by using a connecting frame with one end width corresponding to the distance between each ring-shaped slider and the other end corresponding to the width of the fan blade. The connection between the balance cable and the ring slider. While the connecting frame obtains the pulling force from the sliding block and transmits the pulling force to the wind blade and the balance cable, it can also replace the connecting rod to connect the ring-shaped sliding block embedded between the ring-shaped inner slide rails with stabilizing cables. Combined ring slider.

[0135] In the case where there are a large number of inner slide rails and sliders in the circular ring with stabilizing cables, the method of alternately positioning and connecting positioning bars and connecting rods can also be adopted to connect and position all the sliders into a combined ring-shaped slider. In the combined ring slider at this time, even if there is not a slider on the circular inner slide rail with a stabilizer cable, it is positioned as a complete ring slider, but it passes through the connecting rod or is set on the fan blade and balance cable. The connection of the upper connecting rod is supplemented with positioning, and all the sliders can also be positioned and connected into a complete combined ring-shaped slider. It is also possible to adopt other well-known technologies to position and connect all the sliders into a complete combined annular slider, so that all the sliders can slide in circular motion at the same angular velocity.

[0136] The specific embodiments of the present invention have been exemplarily described above with reference to the accompanying drawings. Obviously, the present invention is not limited thereto, and various modifications made within the scope of the present invention do not exceed the protection scope of the present invention.