JPH11289935A - Recording medium recording operation control data for automatic fishing machine and readable by computer and automatic fishing apparatus loaded with the same recording medium - Google Patents

Abstract

PROBLEM TO BE SOLVED: To obtain the subject recording medium capable of improving the operating efficiency and fish catch quantity by dividing automatic fishing machines into plural groups, carrying out the synchronization among the groups and luring a fish layer to a guide water depth. SOLUTION: This recording medium records operation control data of automatic fishing machines and is readable by a computer. The recording medium is obtained by dividing the automatic fishing machines installed on a boat into plural groups, estimating a guide water depth L for guiding a fish school (a fish layer G) to a constant water depth below the reference point S, performing the synchronization among the respective groups and thereby luring the fish layer G to the guide water depth L. The synchronization among the respective groups is preferably carried out by keeping the water depth interval among the respective groups constant or replacing the water depth interval among the respective groups with the water depth interval (d) of the automatic fishing machines in the groups.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a computer-readable recording medium for recording operation management data for an automatic fishing machine, and an automatic fishing apparatus equipped with the recording medium. Attracting schools of fish (this is called a fish layer) together with the fish layer to a shallow water depth improves the operating efficiency.

[0002]

2. Description of the Related Art In order to catch fish, for example, squid, by an automatic fishing machine, a fish finder is used to find a fish layer existing at a natural depth, and intensively throw fishing hooks into this fish layer. . And conventionally, to move this fish layer,
At best, an underwater lamp was put into the sea, and its light power was used to lure a squid fish layer to a shallow depth.

[0003]

However, such a system using an underwater lamp requires expensive and complicated equipment, and is useless when the equipment breaks down due to barge or the like. Therefore, it is necessary to operate without using the underwater light method. However, since the fish layer constantly changes under the water depth due to fishing grounds, tides, weather, etc., it is not as expected to try to operate in a shallow water depth. For example, when targeting a fish layer at a depth of 100 m, the time required to raise and lower the hook is twice as long as a fish layer at a depth of 50 m, and the operating efficiency is reduced by half. In the past, it was thought that there was no effective countermeasure in such a case because the fishing method used to target fish layers in the natural depths.

[0004] It is an object of the present invention to improve fishery efficiency by attracting a fish layer to an induced water depth set by a fishing ground, a tidal current, weather, and the like, and thereby to improve a fish catch.

[0005]

According to the present invention, there is provided a computer readable recording medium for recording operation management data for an automatic fishing machine according to the present invention. As a medium, the automatic fishing machines installed on the ship are divided into a plurality of groups, and a guidance water depth for guiding a school of fish (fish layer) below a certain depth from a reference point is assumed, and the above groups are synchronized. Thereby, the fish layer is attracted to the above-mentioned induced water depth. Further, in the computer readable recording medium recording the operation management data for an automatic fishing machine according to claim 1, the synchronization between the groups is performed by maintaining a constant water depth interval between the groups. I do. Further, in the computer readable recording medium recording the operation management data for an automatic fishing machine according to claim 2, the synchronization between the groups is such that the water depth interval between the groups is replaced by the water depth interval of the automatic fishing machines in the group. It is characterized by doing. A computer-readable recording medium recording the operation management data for an automatic fishing machine according to claim 3,
The synchronization between the groups is performed by temporarily stopping the automatic fishing machines in each group at a reference point. Further, in the computer readable recording medium recording the operation management data for an automatic fishing machine according to claim 3, the synchronization between the groups is achieved by adjusting the rotation speed of the drum of the automatic fishing machine in each group. It is characterized by the following. Also, in the computer readable recording medium recording the operation management data for an automatic fishing machine according to claim 1 or 2, only the reference machine between the groups is synchronized. Further, in the computer-readable recording medium recording the operation management data for an automatic fishing machine according to claim 1, the lowering operation or the raising operation of each of the groups is reversed. The computer-readable recording medium recording the operation management data for an automatic fishing machine according to claim 1, wherein a water depth interval between the automatic fishing machines in each of the groups is about 1 to 10 m. . Further, in a computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 1, any one of the hooks in each group is always in the fish layer. In a computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 1, the automatic fishing machines in each group are sequentially operated. Further, in the computer readable recording medium which records the operation management data for an automatic fishing machine according to claim 1, the depth interval between the earliest and last fishhooks of the automatic fishing machines in each group is determined by the thickness of the fish layer. It is characterized by being small. An automatic fishing device according to the present invention includes a plurality of the above automatic fishing machines, and further comprises:
A computer-readable recording medium which records the operation management data for an automatic fishing machine according to any one of claims 11 to 11, is mounted. According to a twelfth aspect of the present invention, in the automatic fishing apparatus, the automatic fishing machine includes a squid hook. According to a twelfth aspect of the present invention, in the automatic fishing apparatus, the automatic fishing machine includes a hook for another fish.

[0006]

BEST MODE FOR CARRYING OUT THE INVENTION Hereinafter, an example will be described in which a computer-readable recording medium which records operation management data for an automatic fishing machine according to the present invention and a case where an squid is caught using an automatic fishing apparatus equipped with the recording medium. I do. 1 to 5 show a first embodiment of the present invention. First, the schematic configuration of the entire squid fishing boat in the present embodiment will be described with reference to FIG. First, there is a squid fishing boat 1, and this squid fishing boat 1
A predetermined number (seven in the illustrated example) of automatic squid fishing machines 3 are arranged on the port side and the starboard side, respectively. These automatic squid fishing machines 3
Are centrally controlled by the central control device 5. From the automatic squid fishing machine 3, a fishing line provided with a plurality of squid fishing hooks (not shown) is suspended in the sea.

From the configuration of the entire squid fishing boat shown in FIG. 1, only the automatic squid fishing machine 3 and the centralized control device 5 are extracted and shown.
The result is as shown in FIG. The centralized control device 5 constantly monitors all the automatic squid fishing machines 3 and outputs a predetermined command to the automatic squid fishing machine 3 which is determined to require control.

Next, referring to FIG. 3, each automatic squid fishing machine 3
Will be described. First, a key 31 is provided, and necessary information is input and set using the key 31. Most necessary information is input by the central control device 5 by serial transmission. Further, there is a control means 32, which is provided with "CPU", "ROM", and "RAM". Further, a drive motor 33 for rotating forward and backward a rotating drum (not shown) for winding and lowering the fishing line is disposed. Also, the drive motor 33
There is an encoder 34 for monitoring the rotation of the motor. The encoder 34 calculates the current position (water depth), transmits the current position to the central control device 5, and performs an operation according to a command from the central control device 5. Further, there is a serial circuit 35 for exchanging signals with the centralized control device 5.

Next, the internal configuration of the centralized control device 5 will be described with reference to FIG. First, there is a key 51, which is used to input and set necessary information. Further, there is a control means 52, which includes "CPU",
“ROM” and “RAM” are provided. Key 5 above
1 and the control means 52 are connected to each other via a serial circuit 53 to exchange signals.

In this embodiment, a case where a sequential operation as shown in FIG. 5 is performed will be described as an example. Here, the sequential operation will be described as an operation in which the automatic squid fishing machine 3 is sequentially operated at a constant interval from the front in each of the port group and the starboard group. For example, in FIG. 5, in the group A on the starboard side, the automatic squid fishing machine 3 (No. 1) with the reference numeral “1” is operated first, and after a predetermined interval, the automatic squid fishing machine “2” is used. Machine 3 (Unit 2) is operated, and the automatic squid fishing machine 3 (Unit 3) of “3” is
The automatic squid fishing machine 3 (No. 4) of “4” operates sequentially at predetermined intervals. Also, the port side is group B, and similarly, the automatic squid fishing machine 3 of "1 '"
(No. 1) and the automatic squid fishing machine 3 of "2 '" (No. 2) are operated at predetermined intervals.

Next, referring to FIG. 6 to FIG.
m (reference point S), when a fish layer G is found 100 m below, the water depth interval D between group A and group B
(Depth interval D between groups) is 100 m, depth d between the automatic squid fishing machines 3 in each group is 1 m (depth d in the group), and the fish depth is 50 m below the reference point S. The guidance process will be described by taking G as an example. In each figure, the numbers below the group numbers indicate the operation order of each automatic squid fishing machine 3, and the arrows below them indicate the operation direction of each automatic squid fishing machine 3. Each automatic squid fishing machine 3 includes a fishing line 36, a hook portion 37 including a large number of fishing hooks (not shown) attached to the fishing line 36, and a weight 38, which hang down into the sea, ascending (winding) and descending. (Unwinding) is repeated. In the initial state of FIG. 6, the fishing line 36 is 60 m and the fishing hook 37 is 40 m.

First, the fish layer G is detected by a fish finder (not shown).
Is found, the fishing hooks 37 are inserted into the fish layer G in order from the first machine of the group A at a predetermined water depth interval d. Since the water depth interval d in the group is 1 m in this example, the first and first aircrafts of each group and the last aircraft of each group are 7 m.
The water depth interval of the automatic squid fishing machine 3 of the unit is 6 m.
Since the water depth interval D between the groups (see FIG. 22), that is, the water depth interval between the first unit of the group A and the first unit of the group B is 100 m, that is, the water depth up to the fish layer G, the group A and the group B And the operation direction of the drum of the automatic squid fishing machine 3 is exactly opposite. That is, when the automatic squid fishing machine 3 of the group A is lowered (the lowering of the fishing hook 37), the automatic squid fishing machine 3 of the group B is set to be raised (the upper of the fishing hook 37) (see FIG. 6). ).

The fishing hooks 37 are separated from the fish layer G in order from the first machine in the group A. As shown in FIGS.
The hooks 37 of any group are always in the fish layer G. That is, the first machine of group A enters fish layer G earliest (FIG. 6), and when group A rolls in the hoisting direction, the first machine enters.
The unit leaves the fish layer G earliest. But group A
No. 7 has a fish layer G (Fig. 7). And group A
When the No. 7 unit is separated from the fish layer G, each unit of the group A will be separated from the fish layer G. At this point, the first unit of the group B is put into the fish layer G, and thereafter, the respective unit units of the group B are sequentially placed. Is injected into the fish layer G (FIG. 8). Each automatic squid fishing machine 3 of each group repeats such hoisting and lowering.

By the way, the squid in the fish layer G moves upward by misunderstanding the rising fishhook as bait, or moves upward due to the swimming of the companion moving upward. I do. Therefore, after a certain period of time, the fish layer G gradually moves upward as shown in FIGS. 6 to 8, and finally reaches the induced water depth L shown in FIG.

Then, the operator judges from the actual condition of the squid on the fish finder and the fishhook, and
Is a value obtained by adding the length of the hook part 37 to 40 m to 50 m which is a set value for guiding the water to the induced water depth L, that is, 50 + 40 = 9.
Enter "90" for 0. As a result, the subsequent raising and lowering of the automatic squid fishing machine 3 of each group is performed at the induced water depth L.
, And reciprocate between the water depth “90” m from the reference point.

Referring to a flowchart shown in FIG. 10, the above guidance process will be confirmed. First, FIGS. 1, 2 and 5
Each of the automatic squid fishing machines 3 shown in FIG. 3 reads the amount of movement of the drive motor 33 (see FIG. 3) from the encoder 34 (see FIG. 3), and uses the control means 32 (see FIG. 3) to provide current position information indicating the current position and operation The current position information is transmitted to the central control device 5 (see FIG. 2) by the serial circuit 35 (see FIG. 3) (step 1 (S1)). Next, the centralized control device 5 receives the current position information and the driving direction of each automatic squid fishing machine 3 through the serial circuit 53, and
Aggregate by The control means 52 sets the water depth interval d between the automatic squid fishing machines 3 in each group to 1 m based on the aggregated data, and thereby sets the water depth interval D between the groups to 100 m. The correction amount for each is transmitted to each automatic squid fishing machine 3 by the serial circuit 53 (step 2 (S2)). The method of synchronization between groups will be described later (FIGS. 11 to 18). Next, the central controller 5 sets the value “90” to guide the fish layer G to the induced water depth L.
Is determined (step 3 (S3)).
In the case of YES, a signal is transmitted from the serial circuit 53 to each automatic squid fishing machine 3 so that the set water depth of each automatic squid fishing machine 3 is set to 90 m (step 4 (S4)). Step 3 (S3) is N
In the case of O, the process returns to step 1 (S1), and the above steps are repeated.

Next, a method of synchronization between groups will be described with reference to FIGS. The method of synchronization between groups includes a method of replacing the water depth interval D between groups with the water depth interval d between the automatic squid fishing machines 3 in the group,
There is a method of synchronizing only the head device (reference device) of each group. The former further includes a. Suspending each automatic squid fishing machine 3; b. The rotation of the drum of each automatic squid fishing machine 3 may be controlled. In this embodiment, the method of a, that is, the rotation of the drum of the automatic squid fishing machine 3 is not controlled.
Is temporarily stopped at the reference point S to control the water depth interval d within the group, thereby achieving synchronization between the groups.

The first unit of group A is set as a reference unit, and the water depth interval as viewed from this reference unit is as shown in FIG. First, the suspension of the automatic squid fishing machine 3 serving as the reference machine is released, and the lowering of the reference machine is started. Next, after the reference machine has moved 1 m, the suspension of the second machine is released and the lowering of the second machine is started. In this way, the suspension of the automatic squid fishing machine 3 is released (lowering).
, Sequentially, Unit 2 → Unit 3 → Unit 4 → Unit 5 → Unit 6 →
Processed with Unit 7. That is, after the reference machine has moved 5 m, the suspension of the sixth machine is released and the lowering of the sixth machine is started. After the reference machine has moved 6 m, the suspension of Unit 7 is released and the lowering of Unit 7 is started. Then the reference machine is 100m
After moving, release the suspension of Unit 1 'of Group B and release 1'
Start lowering the Unit. Then the reference machine is 1 + 100m
After the movement, release the suspension of Unit 2 'and start lowering Unit 2'. In this way, the release of the suspension of the automatic squid fishing machine 3 (lowering) is sequentially performed for the 2 'machine → 3' machine → 4 '
Unit → 5 '→ 6' → 7 ' That is, after the reference machine has moved 5 + 100 m, the suspension of the No. 6 ′ unit is released, and the lowering of the No. 6 ′ unit is started. After the reference machine has moved 6 + 100 m, the suspension of No. 7 'is released and the lowering of No. 7' is started.

In such a cycle, the synchronization between groups may be irregular for some reason. FIG.
Fig. 13 shows a case where the water depth interval between the automatic squid fishing machines 3 in each group is larger than the water depth interval d in the predetermined group (1 m in this case). The water depth interval d within the predetermined group (in this case, 1
m) (Figure A). In such a case, the person who arrived earlier than the predetermined time (the automatic squid fishing machine 3 on the left side in FIG. 12, the automatic squid fishing machine 3 on the right side in FIG. 13) is temporarily stopped at the reference point S (FIG. 12). Then, the right automatic squid fishing machine 3 and the left automatic squid fishing machine 3 in FIG. 13 arrive at the water depth interval d in a predetermined group and then arrive earlier (the left in FIG. 12 and the right in FIG. 13). Restart the lowering.

FIG. 14 is an operation flowchart of the automatic squid fishing machine 3 in such a case. Each automatic squid fishing machine 3 outputs drum speed data at the time of lowering to the motor (step 1).
1 (S11)), a lowering operation is performed. Next, it is determined whether or not the current position has reached the set water depth (50 + 40 = “90”) (step 12 (S12)). If YES, the drum speed data at the time of winding is output to the motor (step 13). (S13)), a winding operation is performed. Next, it is determined whether or not the current position has reached the reference point S (step 1).
4 (S14)), in the case of YES, stop temporarily (step 15 (S15)). Next, the automatic squid fishing machine 3 which has been temporarily stopped determines whether or not it has received a signal for canceling the temporary stop from the central control device 5 (step 16 (S16)).
If YES, cancel the pause operation and then
It returns to 1 and shifts to a lowering operation. Step 12
If the current position does not reach the set water depth “90” in (S12), the process returns to step 11 (S11) to continue the lowering operation. Step 14 (S14)
If the current position has not reached the reference point S at
Returning to step 13 (S13), the winding operation is continued. Further, in step 16 (S16), when the temporary stop release command is not received from the central control device 5,
Returning to step 15 (S15), the temporary stop operation is continued.

The centralized control unit 5 determines whether or not to release the suspension based on the current position information of each automatic squid fishing machine 3 and, if the release condition is satisfied, sends a signal to release the suspension to the automatic squid fishing machine 3. Send to fishing machine 3. The transmission and reception of these signals are performed in real time.

Referring to FIG. 15, a specific flowchart on the central control device 5 side will be described. First, when the comparison value of the group (the value for determining whether each automatic squid fishing machine 3 belongs to group A or B) is the head group (group A in this example) (step 21 (S21)), A sequential control code of the leading machine (a code for determining which group each automatic squid fishing machine 3 belongs to and at which position in the sequential operation, which is set by the central control device 5) is read (step 22). (S22)) Then, the control code is sequentially changed to the sequential operation group (for determining which group each automatic squid fishing machine 3 belongs to), the sequential operation number (the number of the automatic squid fishing machine 3 when the sequential operation is performed). (A number for determining whether the operation is performed) (step 23)
(S23)). Next, the process proceeds to step 24 (S24), and sequentially determines whether or not the operation group is the group comparison value. If YES, it is sequentially determined whether or not the operation number is the first machine (step 25 (S25)). ). Step 2
If 5 (S25) is YES, the sequential processing of the leading machine shown in FIG. 16 is performed (step 26 (S26)). If step 25 (S25) is NO, step 27 (S2
The process proceeds to 7), and it is determined whether the operation number is an intermediate machine or not. If YES, the sequential processing of the intermediate machine shown in FIG. 18 is performed (step 28 (S28)). Step 27 (S
27) If NO, step 29 (S2) shown in FIG.
The process proceeds to 9), and the final machine is sequentially processed. Next, it is sequentially determined whether or not the operation number is the last one (step 30).
(S30)), in the case of YES, it is determined whether or not the group comparison value is the last group (group B in this example) (step 31 (S31)). Step 30 (S30)
Is NO, the next sequential control code is read (step 32 (S32)), and the process returns to step 23 (S23). And if the above step 31 (S31) is YES, the process ends. If the group comparison value is the next group in the case of step 31 (S31) NO,
The process returns to step 22 (S22) described above.

FIG. 16 shows the sequential processing of the leading machine. First,
It is determined whether or not the first machine is temporarily stopped (step 261).
(S261)), if YES, the automatic squid fishing machine 3 immediately after
Is the current depth d within the group (1m in this example)
It is determined whether the film is being wound or temporarily stopped above the value (step 262 (S262)). And step 2
62 (S262) In the case of YES, the central control device 5 transmits a temporary stop release command to the leading device, and the process ends. On the other hand, when step 261 (S261) is NO and when step 262 (S262) is NO, the process ends.

FIG. 17 shows the sequential processing of the intermediate machine. First,
It is determined whether or not the intermediate machine is temporarily stopped (step 281).
(S281)), if YES, the last automatic squid fishing machine 3
It is determined whether the current position is lowering below the value of the water depth interval d in the group (step 282 (S28).
2)). If step 282 (S282) is YES, it is determined whether or not the current position of the automatic squid fishing machine 3 immediately after the current position is higher than the value of the water depth interval d in the group is being hoisted or temporarily stopped (step 283 ( S283)). Then, in the case of YES in step 283 (S283), the temporary stop release command is transmitted from the central control device 5 to the intermediate device, and the process ends. On the other hand, if step 281 (S281), step 282 (S282), and step 283 (S283) are NO, the process ends.

FIG. 18 shows the sequential processing of the last machine. First,
It is determined whether or not the last machine is temporarily stopped (step 291).
(S291)), if YES, the last automatic squid fishing machine 3
It is determined whether or not the current position is lowering below the value of the water depth interval d in the group (step 292 (S29)
2)). If step 292 (S292) is YES, the central control device 5 transmits a temporary stop release command to the last machine, and the process ends. On the other hand, step 291 (S2
If 91) is NO and if step 292 (S292) is NO, the process ends.

The reason why such a temporary stop is performed to synchronize the groups is as follows. That is, when squid is applied to each of the automatic squid fishing machines 3, a difference in the number of rotations of the drum is generated between the automatic squid fishing machine 3 and the automatic squid fishing machine 3 to which squid is not applied due to a load change at the time of hoisting. It will happen. Conventionally, if the difference in water depth occurs between the automatic squid fishing machines 3 as described above, this has been a cause of thread entanglement, and this is to prevent this.

In the above embodiment, the automatic squid fishing machine 3 of either the group A or the group B is always in the fish layer G by synchronizing the groups, so that the fish layer G is gradually moved upward. Can be moved. In addition, since each squid is constantly attracted, the squid that has moved upward is not dispersed downward. That is, it is possible to attract the fish layer G to the induced water depth L and maintain the fish layer G at the induced water depth L. If the water depth of the fish layer G is halved from 100 m to 50 m, the time required for raising and lowering the hook is also reduced, so that the operation efficiency is doubled and the fish catch is also improved.

Also, since the groups are synchronized,
Since the water depth interval of each automatic squid fishing machine 3 between the groups and within the group is always constant without being widened or narrowed,
Operation efficiency is improved.

Further, in the embodiment, since the lowering operation or the raising operation of each group is exactly opposite, the time when the fish layer G has no fishing hook is minimized, thereby further improving the operation efficiency.

Further, in the embodiment, since the water depth interval between the first and last fishhooks of the automatic squid fishing machines in each group is smaller than the thickness of the fish layer, the fish layer G contains the hooks. The number of clauses can be increased as much as possible, which also has the effect of improving operation efficiency.

The computer-readable recording medium for recording the operation management data for an automatic fishing machine according to the present invention and the automatic fishing apparatus equipped with the recording medium are not limited to the above embodiment. For example, the method of synchronization between groups is arbitrary. FIGS. 19 and 20 show a method for controlling the water depth interval d between the automatic squid fishing machines 3 in each group by constantly correcting the rotation of the drum of the automatic squid fishing machine 3 (method b).
That is, in this method, only for the first time, the first unit (reference unit) of the group A → the second unit → ・ ・ ・ the sixth unit → the seventh unit → the first unit of the group B → the second unit → ・ ・ ・ the sixth unit → 7 ′ Release the pauses in the order of the units and lower them. After that, the synchronization is achieved by correcting the rotation of the drum of each automatic squid fishing machine 3 instead of the synchronization by the pause. FIG. 19 shows a case where the water depth interval between the automatic squid fishing machines 3 in each group is larger than the water depth interval d (1 m according to the above example) in a predetermined group, and FIG. This is a case where the water depth interval between the automatic squid fishing machines 3 is smaller than the water depth interval d (1 m according to the above example) in a predetermined group. In such a case, the person who arrived earlier than the predetermined time (left side in FIG. 19, FIG.
In FIG. 19, the number of rotations of the drum of the automatic squid fishing machine 3 is decreased, and the speed of the drum is reached later (the right in FIG.
Adjustment is made by increasing the number of rotations of the drum of the automatic squid fishing machine 3 on the left). In addition, although the winding time has been described as an example in FIGS. 19 and 20, the same control can be applied to the lowering.

The case b will be described with reference to the flowchart shown in FIG. Each automatic squid fishing machine 3 corrects the speed data (set speed) of the drum at the time of the lowering operation by the correction amount sent from the central control device 5, and outputs the calculation result to the motor (step 41 (S41)). ). Next, it is determined whether or not the current position of each automatic squid fishing machine 3 has reached the set water depth (step 42 (S42)). Next, each automatic squid fishing machine 3
Corrects the speed data (set speed) of the drum during the lowering operation by the correction amount sent from the central control device 5,
The calculation result is output to the motor (step 43 (S4
3)). Next, the current position of each automatic squid fishing machine 3 is set to the reference point S.
Is determined (step 44 (S44)),
In the case of YES, the process returns to step 41 (S41) and shifts to the lowering operation. If step 42 (S42) is NO, the process returns to step 41 (S41) and step 4
If NO in step S4 (S44), the process returns to step S43 (S43). The “correction amount” refers to the number of revolutions for correcting the drum speed for keeping the water depth interval d of each automatic squid fishing machine 3 constant, and is transmitted from each automatic squid fishing machine 3 in real time. The information is processed by the centralized control device 5 based on the current position information and transmitted to each automatic squid fishing machine 3 in real time.

FIGS. 22 and 23 show a method of synchronizing only the head device (reference device) of each group (the above-described method). FIG. 22 shows that the water depth interval between the head unit of the group A (the reference unit in the group A) and the head unit of the group B (the reference unit in the group B) is the predetermined water depth interval D between the groups (similar to the above example). 100m), and FIG.
Is a predetermined water depth interval D between the groups (the reference device in the group A) and the head device in the group B (the reference device in the group B) (100 m according to the above example). This is the case when it becomes smaller. In such a case, the automatic squid fishing machine 3 that has arrived earlier than the predetermined time (the left side in FIG. 22, the right side in FIG. 23) is temporarily stopped at the reference point S, and the other (the right side in FIG. 22, the left side in FIG. After reaching the water depth interval D between the groups, the lowering of the automatic squid fishing machine 3 that has reached earlier (left side in FIG. 22, right side in FIG. 23) is restarted.

The case of such synchronization will be confirmed with reference to the flowchart shown in FIG. First, step 51
In (S51), it is determined whether or not the synchronization between the leading device of group A (reference device in group) and the leading device of group B (reference device in group) is completed. This is group A
It is determined whether or not the leading machine of the group B and the leading machine of the group B are at a predetermined water depth interval D (100 m according to the above example). If the determination in step 51 (S51) is YES, the sequential control in group A (see FIGS. 15 to 18) is performed (step 52 (S52)). Then step 53
The process proceeds to (S53) to sequentially control the group B (see FIG. 1).
5 to 18). Step 53 (S5
When 3) ends, the process ends. Step 51 (S5
1) In the case of NO, step 51 (S
Repeat step 51).

Further, in the above-described embodiment, the case of the sequential operation has been described as an example. For example, the staggered operation as shown in FIG. 25, the simultaneous operation as shown in FIG.
The present invention is applicable to the case of synchronous operation as shown in FIG. 7, and the mode of operation is arbitrary. Incidentally, the staggered driving means, as shown in FIG. 25, all the automatic squid fishing machines 3 on the port and starboard sides.
Are alternately and sequentially operated in a staggered order. Also in this case, the operation is sequentially performed according to the control code according to the above-described sequential control flowchart (see FIGS. 15 to 18). Simultaneous operation refers to a mode in which the vehicle is divided into a port group and a starboard group and operated in groups as shown in FIG. That is, this is a case where the water depth interval d between the automatic squid fishing machines 3 is set to “0”. Also in this case, the operation is sequentially performed according to the control code according to the above-described sequential control flowchart (see FIGS. 15 to 18). Figure 2 shows synchronous operation.
As shown in FIG. 7, a port fishing machine and a starboard fishing machine are divided into a pair of left and right groups, and the operation is sequentially performed for each group. And in any of these cases,
The application of the present invention is possible. Which driving mode is to be used is appropriately determined depending on the fishing ground, tide, weather, fishing gear, and the like. 25 to 27, the numbers in each automatic squid fishing machine 3 indicate the operation order of the automatic squid fishing machine 3.

It is desirable from experience that the water depth interval d of each automatic squid fishing machine in the group is about 1 to 10 m. However, the present invention is not limited to these values, and an appropriate value may be set depending on fishing grounds, tides, weather, and the like. You can choose. However, if the water depth interval d is excessively wide, the fish layer G is unsuitable for attracting squid and there is no movement of the fish layer G (the so-called "water layer does not float" phenomenon). Conversely, if the width is excessively narrow, the fish layer G can be floated, but the time required for all the hooks to separate from the fish layer G is prolonged. Also, as for the water depth interval D between groups, an appropriate numerical value can be selected depending on the fishing ground, the tide, the weather, and the like.

Further, the group can be further divided into not only two blocks on the starboard and port side but also, for example, a front half and a rear half on the starboard side, a front half and a rear half on the port side.

The setting position of the reference point S is arbitrary.
For example, 0 m may be set at several meters above the water surface.

The actual water depth interval between the automatic squid fishing machines 3 is defined as the water depth interval d within the group or the water depth interval D between the groups.
It is not always necessary to perform the adjustment at the reference point S, and the adjustment to the water depth interval d within the group or the water depth interval D between the groups is possible at any point.

Further, the lowering operation or the raising operation of each group can be performed in the same direction. In this case, there is an effect that the probability of occurrence of thread entanglement is further reduced.

If the automatic fishing machine is provided with a hook for fish to be caught, a computer-readable recording medium for recording operation management data for an automatic fishing machine according to the present invention and an automatic fishing equipped with the recording medium The device can also be applied to catch fish other than squid.

Further, the computer-readable recording medium for recording the operation management data for an automatic fishing machine according to the present invention is mounted on an existing automatic fishing machine or an automatic fishing apparatus (if applicable, applicable to other companies' products). It is possible.

[0043]

As described above, according to the computer-readable recording medium for recording the operation management data for an automatic fishing machine according to the present invention and the automatic fishing apparatus equipped with the recording medium, the fish layer is invited to the assumed induced water depth. It is possible to improve the operation efficiency and, consequently, the catch.

[Brief description of the drawings]

FIG. 1 is a view showing one embodiment of the present invention, and is a plan view showing a configuration of an entire squid fishing boat.

FIG. 2 is a diagram illustrating an embodiment of the present invention, and is a diagram illustrating a relationship between each squid fishing machine and a centralized control device.

FIG. 3 is a diagram illustrating an embodiment of the present invention, and is a diagram illustrating an internal configuration of each squid fishing machine.

FIG. 4 is a diagram illustrating an embodiment of the present invention, and is a diagram illustrating an internal configuration of a centralized control device.

FIG. 5 is a view showing one embodiment of the present invention, and is a plan view for explaining a sequential operation.

FIG. 6 is a view showing an embodiment of the present invention, and is a view for explaining a guiding process to a guiding water depth.

FIG. 7 is a diagram showing an embodiment of the present invention, and is a diagram for explaining a process of guiding to a guided water depth.

FIG. 8 is a view showing an embodiment of the present invention, and is a view for explaining a guiding process to a guiding water depth.

FIG. 9 is a view showing an embodiment of the present invention, and is a view for explaining a guiding process to a guiding water depth.

FIG. 10 is a diagram showing an embodiment of the present invention, and is a flowchart for explaining an operation (induction process).

FIG. 11 is a diagram illustrating an embodiment of the present invention, and is a diagram illustrating “synchronization” between groups.

FIG. 12 is a diagram illustrating an embodiment of the present invention, and is a diagram illustrating “synchronization” between groups.

FIG. 13 is a diagram illustrating an embodiment of the present invention, and is a diagram illustrating “synchronization” between groups.

FIG. 14 is a diagram showing an embodiment of the present invention, and is a flowchart for explaining an operation (“synchronization” between groups).

FIG. 15 is a diagram showing an embodiment of the present invention, and is a flowchart for explaining an operation (“synchronization” between groups).

FIG. 16 is a diagram showing an embodiment of the present invention, and is a flowchart for explaining an operation (“synchronization” between groups).

FIG. 17 is a diagram showing an embodiment of the present invention, and is a flow chart for explaining an operation (“synchronization” between groups).

FIG. 18 is a diagram showing an embodiment of the present invention, and is a flowchart for explaining the operation (“synchronization” between groups).

FIG. 19 is a diagram showing another embodiment of the present invention, and is a diagram for explaining “synchronization” between groups.

FIG. 20 is a diagram showing another embodiment of the present invention, and is a diagram for explaining “synchronization” between groups.

FIG. 21 is a diagram showing another embodiment of the present invention, and is a flow chart for explaining an operation (“synchronization” between groups).

FIG. 22 is a diagram showing another embodiment of the present invention, and is a diagram for explaining “synchronization” between groups.

FIG. 23 is a diagram showing another embodiment of the present invention, and is a diagram for explaining “synchronization” between groups.

FIG. 24 is a view showing another embodiment of the present invention, and is a flow chart for explaining an operation (“synchronization” between groups).

FIG. 25 is a diagram showing another embodiment of the present invention, and is a plan view for explaining a staggered operation.

FIG. 26 is a view showing another embodiment of the present invention, and is a plan view for explaining simultaneous operation.

FIG. 27 is a diagram showing another embodiment of the present invention, and is a plan view for explaining a synchronous operation.

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 1 Squid fishing boat 3 Automatic squid fishing machine 5 Centralized control device 31 Key 32 Control means 33 Drive motor 34 Encoder 35 Serial circuit 36 Fishing line 37 Fishing hook part 38 Weight 51 Key 52 Control means 53 Serial circuit G Fish layer d Water depth interval in group D Water depth interval between groups L Guided water depth S Reference point

Claims (14)

[Claims] 1. A computer-readable recording medium recording operation management data of an automatic fishing machine, wherein the automatic fishing machines installed on a ship are divided into a plurality of groups, and a school of fish is located below a certain depth from a reference point. A computer readable recording of operation management data for an automatic fishing machine, characterized by assuming an induced water depth for guiding a (fish layer), and attracting the fish layer to the induced water depth by synchronizing the groups. recoding media. 2. A computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 1, wherein the synchronization between the groups is performed by maintaining a constant water depth interval between the groups. A computer-readable recording medium recording operation management data for an automatic fishing machine characterized by the following. 3. A computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 2, wherein the synchronization between the groups is such that the water depth interval between the groups is determined by the water depth of the automatic fishing machines in the group. A computer-readable recording medium for recording operation management data for an automatic fishing machine, wherein the recording is performed by replacing with an interval. 4. A computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 3, wherein synchronization between the groups is temporarily stopped at a reference point of the automatic fishing machines in each group. A computer-readable recording medium on which operation management data for an automatic fishing machine is recorded. 5. A computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 3, wherein the synchronization between the groups is adjusted by adjusting the rotation speed of the drum of the automatic fishing machine in each group. A computer-readable recording medium recording operation management data for an automatic fishing machine, characterized in that: 6. The automatic fishing machine according to claim 1, wherein only the reference machine between each group is synchronized with the computer-readable recording medium recording the operation management data for the automatic fishing machine. Computer-readable recording medium on which operation management data is recorded. 7. A computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 1, wherein the lowering operation or the raising operation of each group is reversed. Computer-readable recording medium on which operation management data is recorded. 8. A computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 1, wherein a water depth interval between the automatic fishing machines in each group is set to about 1 to 10 m. A computer-readable recording medium recording operation management data for an automatic fishing machine. 9. A computer-readable recording medium recording operation management data for an automatic fishing machine according to claim 1, wherein any one of the hooks in each group is always in the fish layer. A computer-readable recording medium that records operation management data for a fishing machine. 10. The operation management for an automatic fishing machine according to claim 1, wherein the operation management data for the automatic fishing machine is recorded on a computer-readable recording medium, and the automatic fishing machines in each group are sequentially operated. A computer-readable recording medium that records data. 11. A computer-readable recording medium on which the operation management data for an automatic fishing machine according to claim 1 is recorded, wherein a water depth interval between the earliest and last fishhooks of the automatic fishing machines in each group is determined by a fish layer. A computer-readable recording medium for recording operation management data for an automatic fishing machine, characterized in that the recording medium has a thickness smaller than the thickness of the computer. 12. A computer-readable recording medium comprising a plurality of said automatic fishing machines and recording the operation management data for automatic fishing machines according to claim 1. Automatic fishing equipment. 13. The automatic fishing device according to claim 12, wherein said automatic fishing machine includes a squid hook. 14. The automatic fishing apparatus according to claim 12, wherein said automatic fishing machine includes a hook for another fish.