JPH019369Y2 - - Google Patents

Description

[Detailed explanation of the invention] This invention is designed to receive and store the grain bundles released from the binder body on the accumulating vessel installed in the binder body, so that the grain bundles will not be thrown into the muddy soil of wet rice fields. This relates to the discharge flux accumulation structure that consists of the structure, and its purpose is to prevent mud from entering the interior of the accumulation vessel as much as possible, and to ensure that the accumulation vessel is not tilted outward in a stable manner when unloading grain culms. This is designed to be easy to do.

Embodiments of the present invention will be described below with reference to the drawings.

A is a binder main body, in which a cutting blade 1 is provided at the lower front of the machine body, and a lifting device 3 having a lifting claw 2 is provided from the front of the cutting blade 1 toward the rear diagonally upward. A grain culm guide plate 5 is provided from the rear of the grain culm guide plate 3 to the tying device 4 part on one side of the fuselage, and at the end of the grain culm guide plate 5 and the binding device there is a release mechanism for discharging the grain culm bundle C to the side of the fuselage. A section will be established.

6 is one running wheel, and 7 is a handle.

Reference numeral B denotes an accumulation vessel installed on the side of the discharge part of the binder main body A, and its overall side shape is similar to that of the second
As shown in the figure, the front part is formed into a sled shape with a slight upward slope, and the peripheral part is formed higher than the bottom to prevent muddy water from entering into the cargo ship B. In addition, on the back surface of the bottom B3 of the accumulation ship B, a required number of convex stripes 11 are provided in the forward direction of the receiving plate in order to reduce the frictional resistance with the muddy surface as much as possible and improve running performance. It is installed protrudingly along the

Furthermore, the height of the inner part B1, which is closer to the main body A, of this stacking ship B is lower than the height of the outer part B2. This is done by changing the height of the prevention wall.

The connecting portion between the inner part B1 and the outer part B2 of this accumulation ship B and the bottom part, that is, the ridgeline part 14 of the bottom part B3, is formed to have a partially circular cross-sectional shape.

The stacking ship B formed in this way is attached to the binder main body A side by the following configuration. That is, on the side of the binder main body A, an auxiliary rod 8 for mounting the collecting ship B is attached to a bracket. Through 9,
The auxiliary rod 8 is installed along the binder main body A so as to have approximately the same length as the main body A, and the auxiliary rod 8 and the inner part B1 of the stacking ship B are connected by a universal joint 10, and the stacking ship is assembled by the action of the removable universal joint. B
is mounted so that it can move up and down independently relative to the main body A side, and the specific structure of the universal joint 10 is a structure in which a ring provided on the auxiliary rod 8 and a hook provided on the receiver B engage with each other in the embodiment. It is said that

Furthermore, a sling 12 of a chain, a spring shown in the figure, or any other suitable configuration is provided between the front end of the auxiliary rod 8 at the front of the stacker B to support the outer side of the stacker B. At the same time, the attachment to the auxiliary rod 8 is ensured.

Further, a curved emitted flux receiving guide body 13 is provided from the tip of the auxiliary rod 8 toward the stacking ship B side, and this guide body 13 projects at an angle from the continuous part with the auxiliary rod 8 toward the stacking ship B side. is configured so that it can be changed freely.

In the present invention having such a configuration, the grain bundles that are harvested and bundled on the side of the binder main body A and released from the discharge section to the side of the machine body are sequentially stored on the accumulation ship B, and the grain bundles are Instead of releasing it into muddy water, it is collected and transported as work continues.

In addition, when the grain bundle C is full on the grain culm bundle C on the grain culm bundle C due to the continuation of the harvesting and accumulation work, the reaping work is stopped and the grain culm bundle C is towed by the binder main body A to the grain culm bundle C on the grain culm bundle C. Then go to the auxiliary rod 8.
By removing the flexible joint 10 between the binder body A and the accumulating vessel B, separating the binder body A from the accumulating vessel B, and lifting and tilting the inner part B1 side of the accumulating vessel B, the binder is loaded onto the accumulating vessel B. The grain culm bundle C is discharged to a place free of muddy water in the field, and the accumulation vessel B is connected to the binder main body A again, and the next harvesting and accumulation operation is restarted.

In the unloading operation in which the grain culm bundle C is discharged to the field by artificially tilting the accumulation vessel B, first, the accumulation vessel B is rotated about the ridge line portion 14 of the bottom portion B3 on the side of the outer portion B2 as a fulcrum. When the inner part B1 side is lifted from the state shown in FIG. 4A and tilted as shown in FIG. 4B, the ridgeline portion 14 of the outer part B2
Since the cross-sectional shape of is formed into a partially circular shape,
As the tilting fulcrum shifts outward, the grain culm bundle C in the accumulating vessel B collapses onto the field and is released at the point where it tilts smoothly as shown in Figure 4 (c). Further, as shown in FIG. 4D, by tilting the stacking ship B and pulling it towards the inner part B1, a series of unloading operations can be carried out easily with a small force.

As mentioned above, this invention is based on the fact that a stacker B is attached to the side of the body of the binder main body A on the outside of the binding device 4, and is capable of sliding on the rice field and is capable of receiving and loading a large number of grain bundles C from the binding device 4 side. Both outer circumferential parts of this accumulation ship B are formed high, so that the height of the outer part B2 is appropriately higher than the height of the inner part B1 near the main body A, and the cross-sectional shape of the ridgeline part 14 of both bottom parts B3 is a partial circle. Since it is formed in such a shape, it is possible to prevent mud from entering the inside of the accumulation ship B as much as possible by the outer peripheral part.In particular, by making the outer part B2 higher,
It can cope with the turning of the stacker B or when it sinks due to the amount of cargo loaded, and it can also perform grain culm release well, and when unloading, it can be stabilized at once by using a small force while tilting using the ridgeline of the bottom part B3 as a fulcrum. It can be done in the state.

Moreover, since the ridgeline portion of the accumulation ship B is circular, there is little resistance even if the binder body A slides sideways when changing direction, and can be turned around easily.

[Brief explanation of the drawing]

FIG. 1 is a plan view of the proposed structure, FIG. 2 is a sectional view taken along the line--FIG. 1, FIG. 3 is a sectional view taken along the line--FIG. 1, and FIG. 4 is an explanatory view. A... Binder body, B... Accumulator, B3...
...Bottom part, 14...Ridge line part.

Claims (1)

[Scope of utility model registration request] The binding device 4 of the binder main body A is attached to the side of the fuselage on the outside and can slide on the surface.
A stacker B that can receive and load a large amount of grain bundles C from the side is installed, and both outer peripheral parts of the stacker B are formed higher so that the outer part B2 is higher than the height of the inner part B1 near the main body A. The height of the bottom part B3 on both sides is increased accordingly.
A discharge flux accumulation structure in a binder characterized in that the ridge line portion 14 is configured to have a partially circular cross-sectional shape.