CN205998783U - A kind of ship cable winding stand - Google Patents

Abstract

The utility model provides a cable winding frame for ships, which belongs to the technical field of ship equipment. It solves the problem that the existing ship's cables are scattered on the deck and the safety is poor. The cable winding frame for ships includes a frame body, a control shaft and a winding tube. The control shaft is rotatably connected in the frame body, and the winding tube is set on the control shaft. There is a connection groove on the surrounding wall, and the connection pin is slidably inserted into the connection groove. There is a positioning piece on the frame body, and a buffer structure is set between the control shaft and the winding drum. A guide sleeve is hinged, a screw rod is rotatably connected to the frame body, the lifting plate is screwed to the screw rod, and a transmission part is arranged between the control shaft and the screw rod. The cable winding frame for ships can wind cables in an orderly manner, and has higher safety.

Description

A cable winding frame for ships

technical field

The utility model belongs to the technical field of ship equipment and relates to a cable winding frame for ships.

Background technique

There are a large number of electrical equipment installed on the ship, so cables are indispensable. When the ship is docked, it is often necessary to electrically connect with the electrical equipment on the shore. At this time, the cables are usually scattered on the deck, and the safety is poor.

Contents of the invention

The purpose of the utility model is to solve the above-mentioned problems in the existing technology, and propose a cable winding frame for ships. The cable winding frame for ships can wind cables in an orderly manner, and has higher safety.

The purpose of this utility model can be achieved through the following technical solutions: a cable winding frame for ships, including a frame body, is characterized in that it also includes a control shaft and a winding drum, and the control shaft is rotatably connected in the frame body, The steering shaft is vertically arranged, and the steering shaft can move axially relative to the frame body. The winding drum is rotatably connected in the frame body, and the winding drum is sleeved on the steering shaft. The outer peripheral wall of the steering shaft has radially A connecting pin, the inner peripheral wall of the winding drum is provided with a connecting groove in the axial direction, the connecting pin is slidably inserted into the connecting groove, and the frame body is provided with a positioning piece capable of circumferentially fixing the operating shaft, A buffer structure is provided between the steering shaft and the winding drum to allow the winding drum to move in the circumferential direction relative to the steering shaft when the steering shaft is fixed in the circumferential direction, and the lifting plate is slidably connected to the frame body along the vertical direction , the lifting plate is hinged with a guide sleeve for cables to pass through, the axial direction of the guide sleeve is horizontally arranged, and a screw rod is rotatably connected to the frame body, and the screw rod is vertically arranged. The above-mentioned lifting plate and the screw rod are screwed together. Then, a transmission member capable of driving the screw to rotate back and forth when the control shaft rotates is provided between the control shaft and the screw.

Both the control shaft and the winding drum can rotate in the frame, and at the same time, through the cooperation of the connecting pin and the connecting groove, the operating shaft can drive the winding drum to rotate. When in use, the cable passes through the guide sleeve and is wound on the winding drum, and the manual rotation Manipulating shaft, the manipulating shaft rotates with the winding drum and winds the cable on the winding drum. After the winding is completed, the manipulating shaft is fixed by the positioning piece, that is, the winding drum is roughly positioned within a circumferential range , at the same time, the buffer structure can make the winding cylinder move in the circumferential direction relative to the control shaft, so when the cable is pulled hard, it can be buffered by the circumferential movement of the winding cylinder, preventing the cable from being damaged, and the safety is higher. Further, during the winding process, the control shaft can make the screw rotate reciprocatingly in the circumferential direction through the transmission member, that is, it can drive the lifting plate to reciprocate up and down, so the cable can gradually move in one direction before being wound, and then move to the right position. Reverse movement, that is, the cables can be evenly arranged in the height direction of the winding drum, so that the winding quality of the cables is higher.

In the above-mentioned cable winding frame for ships, the frame body includes an upper plate body, a lower plate body and several vertical rods, the upper plate body and the lower plate body are arranged horizontally, and several vertical rods are fixed vertically Between the upper plate body and the lower plate body, the opposite sides of the upper plate body and the lower plate body have ring-shaped connecting convex edges, and a number of support balls are rotatably connected to the two connecting convex edges. Both ends of the bobbin are circumferentially provided with guide grooves, and the supporting balls are pressed against the guide grooves. The poles are arranged circumferentially to protect the cables and prevent foreign objects from being wound into the reel, and the reel is connected between the upper plate and the lower plate through support balls, so that the rotation of the reel Less friction, more labor-saving operation.

In the above-mentioned cable winding frame for ships, the positioning member includes a positioning ring, which is fixedly connected to the upper side of the upper plate body, and the inner peripheral wall of the positioning ring is provided with several positioning gaps in the upper direction. There is a positioning protrusion on the peripheral wall of the upper end of the operating shaft, and the positioning protrusion can be inserted into the positioning notch. The manipulating shaft can move axially, and after the manipulating shaft is wound with the reel, it moves axially, and the positioning protrusion is inserted into the positioning notch of the positioning ring, thereby realizing the circumferential positioning of the manipulating shaft.

In the above-mentioned cable winding frame for ships, the buffer structure includes two buffer blocks and two buffer springs, and a buffer groove is opened on the inner peripheral wall of the winding drum in the circumferential direction, and the buffer groove intersects with the connecting groove and Through, the two buffer springs are respectively arranged at both ends of the buffer groove, and one end of the buffer spring is fixedly connected with the end face of the buffer groove, and the two buffer blocks are respectively fixedly connected to the free ends of the two buffer springs, and the two buffer blocks They are respectively located on both sides of the connecting groove, and when the positioning convex body is located in the positioning notch, the connecting pin is opposite to the two buffer blocks. When the control shaft is positioned in the circumferential direction, the connecting pin is just opposite to the buffer block. When the cable is pulled hard, the connecting pin can abut against the buffer block, so that the buffer block compresses the buffer spring to be buffered, avoiding damage to the cable and ensuring safety. higher.

In the above-mentioned cable winding frame for ships, a blind hole is provided on the end surface of the connecting pin, and a positioning spring and a positioning ball are provided in the blind hole, and a long length is provided on the bottom surface of the buffer groove along the length direction. A strip-shaped middle positioning groove, and the cross section of the middle positioning groove is arc-shaped. One end of the positioning spring is pressed against the bottom surface of the blind hole, and the other end is pressed against the positioning ball. Under the action of the positioning spring, the positioning ball Can be pressed in the middle positioning groove. That is, the positioning ball can axially locate the control shaft, and at the same time, the positioning ball can roll along the length direction of the middle positioning groove when the winding drum moves in the circumferential direction relative to the control shaft.

In the above-mentioned cable winding frame for ships, a guide shaft is fixed vertically between the upper plate body and the lower plate body, and a connecting sleeve and a screw sleeve are fixedly connected to the lifting plate respectively. The sleeve is located between the connecting sleeve and the screw sleeve, the guide sleeve is slidably sleeved on the guide shaft, and the screw sleeve is screwed on the screw rod. The guide shaft cooperates with the connecting sleeve to guide the lifting plate, while the screw sleeve and the connecting sleeve are respectively located on both sides of the guiding sleeve, so that the lifting plate remains stable.

In the above-mentioned cable winding frame for ships, the transmission member includes a driving sprocket and a driving gear, both of which are rotatably connected to the upper plate body, and the driving sprocket and the driving gear are respectively located on On the upper and lower sides of the positioning ring, the driving sprocket and the driving gear are provided with a central hole, the hole wall of the central hole is provided with a connection gap, the operating shaft passes through the central hole, and the positioning on the operating shaft The convex body can be inserted into the connection gap, the upper end of the screw rod is fixedly connected with the driven sprocket 1 and the driven sprocket 2, the driving sprocket and the driven sprocket 1 are connected by a chain, and the upper plate body The side is also rotatably connected with an intermediate shaft, and the intermediate shaft is fixedly connected with a driven gear and an intermediate sprocket respectively. connected. That is, move the control shaft axially. When the control shaft is lifted up, the connecting pin is located at the upper end of the connection groove and can drive the winding drum to rotate. At this time, the positioning convex body is inserted into the connection gap of the driving sprocket, so the rotation of the control shaft can be The cooperation between the driving sprocket and the driven sprocket drives the screw to rotate forward. When the control shaft is pressed down, the connecting pin is located at the lower end of the connecting groove and can drive the winding drum to rotate. At this time, the positioning convex body is plugged into the connection of the driving gear. In the gap, the driving gear drives the driven gear to rotate, and then drives the intermediate shaft to rotate, and the rotation of the intermediate shaft can drive the screw to reversely rotate through the cooperation of the intermediate sprocket and the driven sprocket, that is, to realize the circumferential reciprocating rotation of the screw.

In the above-mentioned cable winding frame for ships, an upper positioning groove with a hemispherical cross-section is provided on the bottom surface of the upper end of the connecting groove, and a lower positioning groove with a hemispherical cross-section is provided on the bottom surface of the lower end. When inserted in the connection gap of the driving sprocket, the positioning ball is pressed against the upper positioning groove, and when the positioning protrusion is inserted into the connection gap of the driving gear, the positioning ball is pressed against the lower positioning groove. After the steering shaft is lifted up or pressed down, the steering shaft can be positioned axially through the positioning ball.

In the above-mentioned cable winding frame for ships, a cover plate is fixedly connected above the upper plate body, and the intermediate shaft is rotatably connected between the upper plate body and the cover plate. The cover plate protects the driving sprocket, driving gear and other components to prevent foreign objects from being stuck.

Compared with the prior art, the ship cable winding frame has the following advantages:

1. Since the steering shaft is fixed by the positioning member after winding, that is, the winding drum is roughly positioned within a circumferential range, and at the same time, the buffer structure can make the winding drum move in the circumferential direction relative to the steering shaft, so in When the cable is pulled hard, it can be buffered by the circumferential movement of the winding drum, so that the cable is prevented from being damaged, and the safety is higher.

2. Since the control shaft can make the screw reciprocate in the circumferential direction through the transmission part during the winding process, that is, it can drive the lifting plate to reciprocate up and down, so the cable can gradually move in one direction before being wound, and then move to the right position Reverse movement, that is, the cables can be evenly arranged in the height direction of the winding drum, so that the winding quality of the cables is higher.

Description of drawings

Fig. 1 is a three-dimensional structural schematic diagram of a cable winding frame for a ship.

Fig. 2 is a structural cross-sectional view of the cable winding frame for the ship.

Fig. 3 is an enlarged view of the structure at A in Fig. 2 .

Fig. 4 is an enlarged view of the structure at B in Fig. 2 .

Fig. 5 is a cross-sectional view of a partial structure of the cable winding frame for the ship.

In the figure, 1. frame body; 11. upper plate body; 12. lower plate body; 13. vertical rod; 14. connecting convex edge; 141. supporting ball; 15. positioning ring; 151. positioning gap; ; 17, cover plate; 2, control shaft; 21, connecting pin; 22, positioning convex body; 23, blind hole; 24, positioning spring; 25, positioning ball; 3, winding drum; 31, connecting groove; 32, Guide groove; 33, buffer groove; 34, upper positioning groove; 35, middle positioning groove; 36, lower positioning groove; 4, buffer structure; 41, buffer block; 42, buffer spring; 5, lifting plate; 51, guide sleeve ; 52, connecting sleeve; 53, screw sleeve; 6, screw rod; 7, transmission part; 71, driving sprocket; 72, driving gear; 73, connection gap; 74, driven sprocket one; 75, driven sprocket Two; 76, intermediate shaft; 77, driven gear; 78, intermediate sprocket.

detailed description

The following are specific embodiments of the utility model and in conjunction with the accompanying drawings, the technical solution of the utility model is further described, but the utility model is not limited to these embodiments.

As shown in Figures 1 and 2, a cable winding frame for ships includes a frame body 1, a control shaft 2 and a winding drum 3, the control shaft 2 is rotatably connected in the frame body 1, and the control shaft 2 is vertical set, and the steering shaft 2 can move axially relative to the frame body 1, the winding drum 3 is rotatably connected in the frame body 1, and the winding drum 3 is sleeved on the steering shaft 2, and the outer peripheral wall of the steering shaft 2 has a connection in the radial direction The pin 21 and the inner peripheral wall of the winding drum 3 are provided with a connecting groove 31 in the axial direction, and the connecting pin 21 is slidably inserted into the connecting groove 31. The frame body 1 is provided with a positioning member capable of circumferentially fixing the manipulation shaft 2, A buffer structure 4 is provided between the steering shaft 2 and the winding drum 3 to allow the winding drum 3 to move in the circumferential direction relative to the steering shaft 2 when the steering shaft 2 is fixed in the circumferential direction. There is a lifting plate 5, on which a guide sleeve 51 for cables to pass is hinged. The plate 5 is screwed to the screw rod 6 , and a transmission member 7 that can drive the screw rod 6 to rotate back and forth when the control shaft 2 rotates is provided between the control shaft 2 and the screw rod 6 . Both the steering shaft 2 and the winding drum 3 can rotate in the frame body 1, and at the same time, through the cooperation of the connecting pin 21 and the connecting groove 31, the steering shaft 2 can drive the winding drum 3 to rotate. When in use, the cable passes through the guide sleeve 51 and winds up. Wrap around the reel 3, manually rotate the control shaft 2, the control shaft 2 rotates with the reel 3 and wind the cable on the reel 3, fix the control shaft 2 by the positioning piece after winding That is, the winding drum 3 is roughly positioned within a circumferential range, and at the same time, the buffer structure 4 can make the winding drum 3 move in the circumferential direction relative to the steering shaft 2, so that the cable can pass through the winding drum when it is pulled hard. The circumferential movement of 3 is buffered to avoid damage to the cable, and the safety is higher. Further, during the winding process, the control shaft 2 can make the screw 6 reciprocate in the circumferential direction through the transmission part 7, that is, it can drive the lifting plate 5 Reciprocating up and down, so the cable can gradually move in one direction before being wound, and then move in the opposite direction after moving in place, that is, the cables can be evenly arranged in the height direction of the winding drum 3, making the winding quality of the cable better high.

Specifically, as shown in FIG. 3 , the frame body 1 includes an upper board body 11, a lower board body 12 and several vertical rods 13, the upper board body 11 and the lower board body 12 are all arranged horizontally, and several vertical rods 13 are vertically fixed on the Between the upper plate body 11 and the lower plate body 12, the opposite sides of the upper plate body 11 and the lower plate body 12 are provided with annular connecting convex edges 14, and a plurality of supporting balls 141 are rotatably connected on the two connecting convex edges 14. Both ends of the bobbin 3 are provided with guide grooves 32 in the circumferential direction, and the support balls 141 are pressed against the guide grooves 32. The vertical rods 13 are arranged in the circumferential direction to protect the cables, and the bobbin 3 is supported by The ball 141 is connected between the upper plate body 11 and the lower plate body 12, so that the rotational friction force of the winding drum 3 is smaller and the operation is more labor-saving. The positioning member includes a positioning ring 15, which is fixedly connected to the upper side of the upper plate body 11. The inner peripheral wall of the positioning ring 15 is provided with several positioning gaps 151 in the upper direction, and the outer peripheral wall of the upper end of the operating shaft 2 has a positioning convex body. 22. The positioning convex body 22 can be inserted into the positioning gap 151, and the operating shaft 2 can move axially. After the operating shaft 2 is wound with the winding drum 3, it moves axially, and the positioning convex body 22 is inserted into the positioning ring 15 in the positioning notch 151, thereby realizing the circumferential positioning of the manipulation shaft 2.

The buffer structure 4 includes two buffer blocks 41 and two buffer springs 42. The inner peripheral wall of the winding drum 3 is provided with a buffer groove 33 in the circumferential direction. The buffer groove 33 intersects and penetrates the connecting groove 31. The two ends of the buffer groove 33, and one end of the buffer spring 42 is fixedly connected to the end face of the buffer groove 33, and the two buffer blocks 41 are respectively fixedly connected to the free ends of the two buffer springs 42, and the two buffer blocks 41 are respectively located at the ends of the connecting groove 31. On both sides, when the positioning convex body 22 is located in the positioning notch 151, the connecting pin 21 is opposite to the two buffer blocks 41. When the steering shaft 2 is positioned in the circumferential direction, the connecting pin 21 is just opposite to the buffer block 41. When the cable is rigidly pulled When the connecting pin 21 can abut against the buffer block 41, the buffer block 41 compresses the buffer spring 42 to be buffered, so as to avoid damage to the cable and provide higher safety.

The end face of connecting pin 21 is provided with blind hole 23, and blind hole 23 is provided with positioning spring 24 and positioning ball 25, and the bottom surface of buffer groove 33 is provided with elongated middle positioning groove 35 along the length direction, and middle positioning groove The cross section of 35 is arc-shaped, one end of the positioning spring 24 is pressed against the bottom surface of the blind hole 23, and the other end is pressed against the positioning ball 25, and under the action of the positioning spring 24, the positioning ball 25 can be pressed against the middle positioning groove 35, that is, the positioning ball 25 can axially locate the steering shaft 2, and the positioning ball 25 can roll along the length direction of the middle positioning groove 35 when the winding drum 3 moves in the circumferential direction relative to the steering shaft 2.

As shown in Fig. 4 and Fig. 5, a guide shaft 16 is vertically fixed between the upper plate body 11 and the lower plate body 12, and a connection sleeve 52 and a screw sleeve 53 are respectively fixedly connected to the lifting plate 5, and the guide sleeve 51 is located at Between the connection sleeve 52 and the screw sleeve 53, the guide sleeve 51 is slidingly sleeved on the guide shaft 16, and the screw sleeve 53 is screwed on the screw rod 6, and the guide shaft 16 cooperates with the connection sleeve 52 to guide the lifting plate 5, and at the same time The screw sleeve 53 and the connecting sleeve 52 are respectively located on both sides of the guide sleeve 51, so that the lifting plate 5 remains stable.

Transmission part 7 comprises driving sprocket 71 and driving gear 72, and driving sprocket 71 and driving gear 72 are all rotatably connected on the upper plate body 11, and driving sprocket 71 and driving gear 72 are respectively positioned at the upper and lower sides of positioning ring 15, Both the drive sprocket 71 and the drive gear 72 are provided with a central hole, and the hole wall of the central hole is provided with a connection gap 73, the control shaft 2 passes through the center hole, and the positioning protrusion 22 on the control shaft 2 can be inserted into the connection. In the gap 73, the upper end of the screw rod 6 is fixedly connected with a driven sprocket 74 and a driven sprocket 2 75, the driving sprocket 71 is connected with the driven sprocket 74 by a chain, and the upper side of the upper plate body 11 also rotates Connected with an intermediate shaft 76, the intermediate shaft 76 is fixedly connected with a driven gear 77 and an intermediate sprocket 78 respectively, the driving gear 72 is meshed with the driven gear 77, and the intermediate sprocket 78 is connected with the driven sprocket 2 75 by a chain , that is, move the control shaft 2 axially. When the control shaft 2 is lifted up, the connecting pin 21 is located at the upper end of the connecting groove 31 and can drive the winding drum 3 to rotate. At this time, the positioning convex body 22 is inserted into the connecting gap of the driving sprocket 71 73, so the rotation of the control shaft 2 can drive the screw rod 6 to rotate forward through the cooperation of the driving sprocket 71 and the driven sprocket 74. When the control shaft 2 is pressed down, the connecting pin 21 is located at the lower end of the connecting groove 31 and can drive the coil. Rotate around the cylinder 3. At this time, the positioning convex body 22 is inserted into the connection gap 73 of the driving gear 72. The driving gear 72 drives the driven gear 77 to rotate, and then drives the intermediate shaft 76 to rotate, and the rotation of the intermediate shaft 76 can pass through the intermediate chain. Wheel 78 cooperates with driven sprocket 2 75 to drive screw rod 6 to rotate counterclockwise, promptly realizes the circumferential reciprocating rotation of screw rod 6.

The bottom surface of the upper end of the connection groove 31 is provided with a hemispherical upper positioning groove 34 in cross section, and the lower positioning groove 36 with a hemispherical cross section is provided on the bottom surface of the lower end. 73, the positioning ball 25 is pressed against the upper positioning groove 34, and when the positioning convex body 22 is inserted into the connection gap 73 of the driving gear 72, the positioning ball 25 is pressed against the lower positioning groove 36, and the control shaft 2 or After the manipulation shaft 2 is pressed down, the positioning ball 25 can be used to axially position the manipulation shaft 2 . A cover plate 17 is fixedly connected above the upper plate body 11, and the intermediate shaft 76 is rotatably connected between the upper plate body 11 and the cover plate 17. The cover plate 17 protects the driving sprocket 71, the driving gear 72 and other components to prevent foreign objects from being stuck. enter.

The specific embodiments described herein are only examples to illustrate the spirit of the present invention. Those skilled in the technical field to which the utility model belongs can make various modifications or supplements to the described specific embodiments or adopt similar methods to replace them, but they will not deviate from the spirit of the utility model or go beyond the appended claims defined range.

Claims (9)

1. a kind of ship cable winding stand, including support body (1) it is characterised in that also including control lever shaft (2) and winch spool (3), Described control lever shaft (2) is rotatably connected in support body (1), and this control lever shaft (2) is vertically arranged, and control lever shaft (2) being capable of relative support body (1) move axially, described winch spool (3) is rotatably connected in support body (1), and winch spool (3) is set on control lever shaft (2), institute State control lever shaft (2) periphery wall radially with connecting pin (21), described winch spool (3) internal perisporium offers link slot vertically (31), in link slot (31), described support body (1) is provided with can enter the sliding plug of described connecting pin (21) to control lever shaft (2) The circumferentially fixed keeper of row, be provided between described control lever shaft (2) and winch spool (3) when control lever shaft (2) by circumferentially fixed when energy Enough make the buffer structure (4) of winch spool (3) relative manipulation axle (2) circumference play, on described support body (1), vertically slip connects It is connected to lifter plate (5), described lifter plate (5) is hinged with the fairlead (51) passing through for cable, the axle of this fairlead (51) To being horizontally disposed with, described support body (1) is also rotatably connected to screw rod (6), this screw rod (6) is vertically arranged, above-mentioned lifter plate (5) with Screw rod (6) bolt, is provided between described control lever shaft (2) and screw rod (6) and can drive screw rod (6) when control lever shaft (2) rotates The driving member (7) of reciprocating rotation.

2. ship according to claim 1 with cable winding stand it is characterised in that described support body (1) include upper plate body (11), lower body (12) and some vertical rods (13), described upper plate body (11) and lower body (12) are all horizontally disposed with, some described vertical Bar (13) is vertically connected between upper plate body (11) and lower body (12), the opposite side of described upper plate body (11) and lower body (12) The connection convex edge (14) of annular is respectively provided with face, connects described in two and some supports ball (141) are all rotatably connected on convex edge (14), On the two ends end face of described winch spool (3), all circumference offers gathering sill (32), and described support ball (141) is pressed on gathering sill (32) in.

3. ship cable winding stand according to claim 2 is it is characterised in that described keeper includes locating ring (15), this locating ring (15) is connected on the upper side of upper plate body (11), and on the internal perisporium of described locating ring (15), circumference opens up There are some locating notches (151), described control lever shaft (2) upper end periphery wall has positioning convex body (22), described positioning convex body (22) can be plugged in locating notch (151).

4. ship according to claim 3 with cable winding stand it is characterised in that described buffer structure (4) include two delay Rush block (41) and two buffer springs (42), on the internal perisporium of described winch spool (3), circumference offers dashpot (33), this dashpot (33) intersect and insertion with link slot (31), buffer spring described in two (42) is separately positioned on the two ends of dashpot (33), and One end of buffer spring (42) is fixedly connected with the end face of dashpot (33), and buffer stopper described in two (41) is respectively fixedly connected with two buffering elastics The free end of spring (42), and two buffer stoppers (41) are located at the both sides of link slot (31) respectively, when positioning convex body (22) is located at positioning When breach (151) is interior, connecting pin (21) is relative with two buffer stoppers (41).

5. ship cable winding stand according to claim 4 is it is characterised in that open on the end face of described connecting pin (21) It is provided with blind hole (23), in described blind hole (23), be provided with retaining spring (24) and place kick (25), the bottom surface of described dashpot (33) On offer the middle locating slot (35) of strip along its length, and the cross section of middle locating slot (35) is curved, described positioning One end of spring (24) is pressed on blind hole (23) bottom surface, and the other end is pressed in place kick (25), in retaining spring (24) Under effect, place kick (25) can be pressed in middle locating slot (35).

6. ship according to claim 5 with cable winding stand it is characterised in that described upper plate body (11) and lower body (12) also vertically it is fixed with the axis of guide (16) between, described lifter plate (5) has been respectively fixedly connected with adapter sleeve (52) and swivel nut (53), Described fairlead (51) is located between adapter sleeve (52) and swivel nut (53), and described fairlead (51) is slidably located in the axis of guide (16) On, described swivel nut (53) is screwed onto on screw rod (6).

7. ship according to claim 6 with cable winding stand it is characterised in that described driving member (7) include drive chain Wheel (71) and driving gear (72), described drive sprocket (71) and driving gear (72) are all rotatably connected on upper plate body (11), And drive sprocket (71) and driving gear (72) are located at the both sides up and down of locating ring (15), described drive sprocket (71) and master respectively Centre bore is all offered on moving gear (72), the hole wall of described centre bore offers connection breach (73), described control lever shaft (2) Be inserted in connection breach (73) through the positioning convex body (22) on centre bore, and control lever shaft (2), described screw rod (6) upper End is fixed with driven sprocket one (74) and driven sprocket two (75), and described drive sprocket (71) passes through chain with driven sprocket one (74) Bar is connected, and described upper plate body (11) upper side is also rotatably connected to jackshaft (76), solid respectively on described jackshaft (76) It is connected with driven gear (77) and intermediate chain wheel (78), described driving gear (72) is meshed with driven gear (77), described centre Sprocket wheel (78) is connected by chain with driven sprocket two (75).

8. ship according to claim 7 with cable winding stand it is characterised in that on described link slot (31) upper end bottom surface Offering cross section is hemispherical upper locating slot (34), and it is hemispherical lower locating slot that lower end bottom surface offers cross section (36), when positioning convex body (22) is plugged in the connection breach (73) of drive sprocket (71), place kick (25) is pressed on upper positioning In groove (34), the place kick (25) when positioning convex body (22) is plugged in the connection breach (73) of driving gear (72) is pressed on down In locating slot (36).

9. ship cable winding stand according to claim 8 is it is characterised in that be fixed with above described upper plate body (11) Cover plate (17), described jackshaft (76) is rotatably connected between upper plate body (11) and cover plate (17).