JPH0466040A - Reel for fishing - Google Patents

Abstract

PURPOSE:To enable to grasp the relative position of the device based on a specific position by detecting the rotation of a spool winding a fishing line, detecting the length of the fishing line on the basis of a delivering rotation signal and a winding rotation signal and displaying the detected length in an analog display. CONSTITUTION:Whether a fishing line 3 is delivered or not is judged, and when it is judged that the fishing line 3 is delivered, a spool 2 is rotated in the positive rotation direction as the fishing line 3 is delivered. The positive rotation signal from a sensor 29 is inputted into a CPU 13 through an input interface 19 to set an up/down counter 31 in an up direction. The pulse signal outputted from the sensor 29 for each rotation of the spool is inputted into the counter 31 through the interface 19 to count up the rotation of the spool. The counting content of the up/down counter 17 is inputted for each computing period of a microcomputer 11 to compute the length of the fishing line, and the computation result is outputted on a display 6 through an output interface 21 and a decoder 33 to digital-display the length of the delivered fishing line 3.

Description

DETAILED DESCRIPTION OF THE INVENTION [Field of Industrial Application] The present invention relates to a fishing reel, and particularly to a fishing reel that can notify anglers of the position of a fishing line.

[Conventional technology]

2. Description of the Related Art Hitherto, as a fishing reel for informing anglers of the position of a fishing line, for example, there has been known a fishing reel as disclosed in Japanese Utility Model Application No. 63-101070.

The fishing reel disclosed in this publication calculates the length of the fishing line by detecting the number of revolutions of a rotating roller that presses against the fishing line wound around the spool, and calculates the length of the fishing line. The value converted to the length from the seabed is digitally displayed on the display located on the reel body, and the position of the tackle is notified to the angler.

[Problem to be solved by the invention]

However, with such fishing reels, the length of the fishing line, etc. is displayed in a small digital format on the display section of the reel body, so it is difficult to tell just by looking at the surface of the water.

There was a problem in that it was difficult to grasp the shelf position or the relative position of the device with respect to the seabed.

For this reason, there has been a problem in that it is not possible to quickly and easily judge the amount of fishing line being fed out or the amount of winding up.

In other words, the shelf position is located in the middle layer between the water surface and the seabed, and is determined based on the water surface or the seabed, but even if the distance is digitally displayed based on the water surface or seabed, the device is still located at the shelf position. It is impossible to judge whether or not the device is located, or what position it is in relation to the shelf position, without calculating the digitally displayed values, and it is not possible to intuitively confirm the position of the device. Ta.

The present invention has been made to solve these problems, and provides a fishing reel that displays the position of the tackle in analog form and allows the user to grasp the relative position of the tackle with respect to a fixed position at a glance. The purpose is to

[Means to solve the problem]

The fishing reel of the present invention includes a spool that is rotatably supported by the reel body and around which a fishing line is wound, a detection means for detecting the rotation of the spool, and a feeding rotation signal and a winding rotation signal from the detection means. a yarn length calculation means for calculating the yarn length based on the yarn length calculation means, a yarn length digital display means for digitally displaying the yarn length calculated by the yarn length calculation means, and a set switch for setting an interval for analog display of the yarn length; The device is equipped with a thread length analog display means for analog displaying the relative position of the device with respect to the digital display point of the thread length digital display means when the set switch is turned on as a reference.

[For production]

In the fishing reel of the present invention, when the fishing line is let out or wound up, the rotation of the spool is detected by the detection means, and the line length is is calculated, and the calculated yarn length is displayed by the yarn length digital display means.

In addition, by letting out the fishing line and setting the tackle at a predetermined depth, and turning on the set switch in this state, the digital display point of the line length digital display means at this time, that is, the tackle when the set switch is turned on, can be adjusted. The position is the reference for analog display, and the relative position of the device with respect to this position is displayed by the yarn length analog display means.

〔Example〕

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

1 and 2 show an embodiment of the present invention, and in FIG. 1, reference numeral 1 indicates a reel body.

A spool 2 is rotatably attached to the reel body 1, and a fishing line 3 is wound around the spool 2.

A waterproof flat box 4 is integrally attached to the top surface of the reel body 1, and the top panel 5 of this box 4 includes a display 6, a reset/display switch 7, a mode changeover switch 8. A set switch 9 is provided.

In addition, a microcomputer for calculating yarn length, a battery (both of which will be described later), and the like are watertightly housed in the box 4.

A handle 10 for winding and rotating the spool 2 is rotatably provided on the reel body 1.

In FIG. 2, reference numeral 11 indicates a microcomputer that performs yarn length calculation, yarn length display, and data writing control.

This microcomputer 11 includes a program memory,
A CPU (Central Processing Unit) 13 that controls and manages data memory, timers, and input/output devices and executes the calculations and transfer processing necessary to process a given job, and A ROM 15 that stores yarn length calculation formulas, etc., a RAM 17 that stores data such as calculation results from the CPU 13, and an input interface 1.
9 and an output interface 21, which are connected to the CPU 13 via a lotus 23.

In addition, as shown in FIGS. 1 and 2, the spool 2
A detected member 27 is disposed on the outer surface of the flange 25, and a sensor 29, which is a detection means for detecting the rotation of the spool 2, is mounted on the reel body l facing the rotational trajectory of the detected member 27. is located.

This sensor 29 is connected to the input interface 19 of the microcomputer 11, and the judgment signal of forward rotation or reverse rotation of the spool 2 outputted from the sensor 29 is inputted into the CPU 13 through the input interface 19, and is input to the built-in up/down counter 31. It is set to an up-count or down-count state, and the rotation pulse signal of the spool 2 taken in from the sensor 29 through the input interface 19 is used to perform an up-count or down-count operation.

Also connected to the input interface 19 are a reset/display switch 7, a mode changeover switch 8, and a set switch 9 for switching the microcomputer 11 to a data input mode, yarn length display mode, and data correction mode.

A display 6 is connected to the output interface 21 via a decoder 33, and this display 6 displays the line length and the total number of revolutions of the spool 2 when the fishing line 3 is wound onto the spool 2 to a predetermined winding diameter level. a display section 35 that digitally displays
Display section 37 that displays data input in progress. It is provided with a display section 39 that displays a correction mode and an analog display section 41 that is a thread length analog display means that displays the relative position of the device in an analog manner.

The set switch 9 is used to set the section in which the yarn length is displayed in analog form, and when the set switch 9 is turned on, the display point displayed on the display section 35, that is, when the set switch 9 is turned on, is set. With reference to the position of the device in , the relative position of the device with respect to this position is displayed on the analog display section 41.

As shown in FIG. 3, this analog display section 41 includes a water surface lighting section 43 that displays the water surface, and a set switch 9 that is turned ON.
A set point lighting section 45 indicating the point where the water surface has been set, and a water surface lighting section 43. It is composed of 11 lighting parts 47F1 to 47P+4 arranged on the sides of the setting point lighting part 45 and three lighting parts 47F1 to 47P+4 arranged below the setting point lighting part 45, and these lighting parts 43, 45, 47P1. ~47PI, is formed by a light emitting diode, for example.

That is, when the set switch 9 is turned ON, the distance between the water surface lighting section 43 and the set point lighting section 45 is divided into 10 equal parts in the microcomputer 11, and the lights are turned on as the fishing line 3 is paid out or retracted. Furthermore, the part corresponding to the position of the device is formed to blink.

Lighting parts 43, 45, 47. ．． ~47□4 is lit or blinks to display - bars respectively.

For example, if the display unit 35 indicates 100 m, that is, 1
When the set switch 9 is turned on after extending 00 m,
The water surface lighting section 43 and the set point lighting section 45 light up, and the lighting sections 47P1 to 47□. lights up, and the lighting section 4
7. ．． ．． flashes and a bar is displayed. The distance between bars is 10
0m÷10=10m.

From this state, wind up the fishing line 3 and the display section 35 will display 8.
When the temperature reaches 0.0 m to 89.0 m, the water surface lighting section 43 and the setting point lighting section 45 light up, and the lighting sections 47□ to 47
F, lights up, and the lighting section 47□ blinks.

On the other hand, after turning on the set switch 9, the fishing line 3 is let out, and the display section 35 shows a range of 110.0 m to 119.0 m.
At this time, the water surface lighting section 43 and the set point lighting section 45 light up, the lighting sections 47P and 47□2 light up, and the lighting section 47P+3 blinks.

Then, when the set switch 9 is turned on in a state where the robot has extended 110.0 m to 119.0 m, this point becomes a new reference point.

Note that an operating battery power source 49 is connected to the microcomputer 11 and the display 6.

Next, FIG. 4 will be explained.

Figure 4 is for explaining the relationship between the number of revolutions of the spool 2 and the outer circumference diameter and line length of the fishing line 3 wound on the spool 2 when the spool 2 is a straight type in which the winding width l does not change. It is.

In the figure, D: Diameter Do of the winding line at the specified winding diameter level of the fishing line 3 Bottom diameter of the nis spool 2 H: Groove depth of the spool 2 up to the specified winding diameter level D7: Winding line that changes with each winding of the fishing line Outer diameter N: Total number of revolutions of the spool 2 when the fishing line 3 is wound up to the specified winding diameter level H on the spool 2, N: Actual number of revolutions of the spool 2 when it is rotated by letting out or winding the fishing line 3 It is.

Here, if the spool 2 rotates N1 and the diameter of the wound yarn changes from D to
1) However, a: a constant regarding H; b: a constant regarding D.

In the above yarn length calculation formula, D and H are constants determined in advance according to the spool shape, N is a constant determined according to the yarn type, and N is a variable that changes as the spool 2 rotates.

Therefore, the formula (1) above is stored in the ROM 15,
By executing this equation (1), the length of the delivered yarn or the length of the wound yarn can be measured according to the rotational speed N of the spool 2.

Next, the yarn length measuring operation will be explained according to the processing procedure shown in FIG.

When the program shown in FIG. 5 starts, first, in step Sl, it is determined whether or not the fishing line 3 is to be let out. Here, if it is determined that the fishing line 3 is being fed out, the spool 2 is rotated in the normal rotation direction as the fishing line 3 is fed out, so that the signal from the sensor 29 in the normal rotation direction is transmitted through the input interface 19. The up/down counter 31 is set in the up direction, and the pulse signal for each rotation of the spool output from the sensor 29 as the spool 2 rotates is input to the up/down counter through the input interface 19. 31 and sequentially counted up (step S2)
.

In the next step S3, the count contents N of the up/down counter 17 are calculated every calculation cycle of the microcomputer 11,
is input into the CPU 13 and executes the line length calculation according to equation (1) above, outputs this calculation result to the display unit 6 through the output interface 21 and decoder 33, and digitally displays the payout line length of the fishing line '3 on the display unit 35. Display (step 34).

On the other hand, if it is determined in step 31 that the fishing line 3 is being wound up, the spool 2 is rotated in the reverse direction as the fishing line 3 is wound up, so a signal in the reverse direction is input from the sensor 29. CPU through interface 19
13, thereby setting the up/down counter 31 in the down direction, and the pulse signal output from the sensor 29 as the spool 2 rotates is taken into the up/down counter 31, and its down counting operation (step S5). Then, in the next step S6, the count contents N of the up/down counter 31 are taken into the CPU 13 every calculation cycle of the microcomputer 11,
By executing formula (1), the winding yarn length, that is, the yarn length obtained by subtracting the winding yarn length from the unreeled yarn length, is calculated, and this is output to the display 6 to display the yarn length. 35 (step S7).

Here, a case in which the position of the device is displayed in analog form will be specifically explained.

First, as shown in FIG. 6, the fishing line 3 is let out, and the spool 2 is braked so that it stops when the fishing line 3 reaches a predetermined shelf. Assuming that this shelf position is 100 m, rlooJ is displayed on the display section 35, as shown in FIG. Here, when the set switch 9 is pressed to turn on, the water surface lighting section 43 and the set point lighting section 45 light up, and the lighting sections 47P1 to 47□. lights up, the lighting section 47□ blinks, and a bar is displayed. In this state,
The distance between the bars is 100m÷10=10m.

From this state, as shown in FIG. 8, the fishing line 3 is wound up and the display section 35 displays r85. When OJ is reached, the water surface lighting section 43 and the setting point lighting section 45 are lit, and the lighting sections 47□ to 47P8 and 47P are lit, and the lighting section 47
F. blinks and a bar is displayed.

Furthermore, as shown in FIG. 9, when the fishing line 3 is wound up and the display on the display section 35 becomes rO, OJ, the water surface lighting section 43 and the set point lighting section 45 are lit, and the lighting section 47. ．．
．． lights up, the lighting section 47.1 blinks, and a bar is displayed.

On the other hand, as shown in FIG. 10, when the fishing line 3 is let out and the display on the display section 35 becomes rllOJ, the water surface lighting section 43 and the set point lighting section 45 are lit, and the lighting sections 47□~
47PII lights up, the lighting part 47r+z blinks, and a bar is displayed.

Here, when the set switch 9 is pressed again, the water surface lighting section 43 and the set point lighting section 45 are lit, and the lighting section 4
7F, ~47P1° are lit, the lighting section 47□, blinks, and a bar is displayed. In this state, the distance between the bars is 110 m+l0=l 1 m.

In the fishing reel configured as described above, the straight type spool 2 has been described, but in the case of a tapered spool in which the winding width l of the spool 2 changes, the winding width of the bottom diameter D0 and the specified winding shown in FIG. Since the winding widths of the diameters are different, if these winding diameter widths are set as constants in addition to D and H, the yarn length in the tapered spool can also be measured with high precision.

Further, each constant of the thread length measurement type changes depending on the shape of the spool 2, so constants corresponding to various spools 2 are stored in the ROM 15 in advance, and the constants of the spool 2 incorporated in the reel body 1 are stored in the ROM 15 in advance. The spool data in the ROM 15 may be selectively set depending on the situation.

Therefore, constants determined according to the shape of the spool 2 are set, and these constants and the fishing line 3 are combined into the spool 2.
The yarn length can be measured by calculating the yarn length calculation formula based on the total number of revolutions of the spool 2 when the yarn is wound up to the specified level and the actual number of revolutions of the spool 2 when the yarn is unwound and 7 winded. As a result, the length of the unreeled line or the length of the wound line can be measured with high precision regardless of the thickness of the fishing line 3, and the input data is also based on the data when the line is wound up to the specified winding diameter of the spool 2. It is only necessary to input the total number of rotations of the spool 2, and the data input operation can also be done with a single touch operation of the switch 8, so the data input operation is simple and there is no restriction on the type of fishing line 3. Since it can be used with all types of thread, it can be used in a wide range of fishing conditions and has the effect of being highly practical.

However, with the fishing reel configured as above,
By letting out the fishing line 3 and setting the tackle at a predetermined depth, and turning on the set switch 9 in this state, the digital display point of the display section 35 at this time, that is, the position of the tackle when the set switch 9 is turned on, is displayed. The position serves as a reference for analog display, and the relative position of the device with respect to this position is displayed in analog on the analog display section 41. By displaying the position of the device in analog, it is possible to see the relative position of the device with respect to a fixed position at a glance. I can understand it.

Thereby, it is possible to quickly and easily judge the situation regarding the amount of the fishing line 3 being fed out and the amount of winding up.

FIGS. 12 and 13 show another embodiment of the fishing reel of the present invention, in which reference numeral 51 indicates the reel body.

A spool 53 is rotatably supported on the reel body 51, and the spool 53 is connected to a take-up handle 55 via a well-known clutch mechanism and a drag mechanism (not shown). A fishing line 57 is wound around the spool 53, and the end of the winding is pulled out of the reel body 51 through a level winder mechanism 59.

A support member 61 is rotatably attached to the reel body 51, and a rotating roller 6 that is pressed against the outer peripheral surface of the fishing line 57 wound around the spool 53 is attached to the support member 61.
3 is attached to the shaft.

The rotation of this rotating roller 63 is caused by a gear train 65 provided within the support member 61 and a shaft 6 connected to this gear train 65.
7 to the side plate 69 of the reel body 51, and the shaft 67 is further connected to a gear train 71 provided within the side plate 69.

The yarn length measuring gear 73 meshed with this gear train 71 is
One rotation corresponds to 10 cm of thread length, and magnet 7
5, and two reed switches 77a and 77b which are turned on and off by the magnet 75 are arranged facing each other with a predetermined phase difference in the rotational direction of the yarn length measuring gear 73.

The rotation from these rotating rollers 631 and 63 is transmitted to a yarn length measuring gear 73 and a magnet 75. The reed switches 77a and 77b constitute a detection means for detecting the rotation of the spool 53.

Further, a thread length measuring unit 81 is attached to the reel body 51 in a waterproof structure, and a display device 82 is attached to the top surface of this thread length measuring unit 81.
consists of an indicator 83 that displays the water depth from the water surface, and an indicator 84 that displays the water depth or the water depth from the shelf position.

In FIG. 13, the magnet 75 of the yarn length measuring gear 73
The reed switches 77a, 77 are turned ON-OFF by
b generates one signal for each rotation of the yarn length measuring gear 73, and by providing a phase difference in the rotational direction of the yarn length measuring gear 730, this signal can be rotated in the forward or reverse direction, that is, in the yarn feeding direction. It is also used as a signal to determine rotation in the yarn winding direction.

A counting pulse generating circuit 85 is connected to the reed switches 77a and 77b, and this counting pulse generating circuit 85 converts the signals output from the reed switches 77a and 77b into a pulse signal of one pulse per revolution of the yarn length measuring gear. It is something.

The first counting circuit 86 is for measuring the water depth on the water surface by counting the length of the fishing line 57 being fed out and wound up, and is for counting pulses from the counting pulse generation circuit 85 in units of 1 ocIIl of westward movement. Up/down counter 8
7a and this 10cm unit up/down counter 8
The up/down counter 87b for 1m counts the carry signal or borrow signal of 7a in units of 1m.

10cm up/down counter 87a and 1m up/down counter 87b of the first counting circuit 86
are connected to decoder drive circuits 88a and 88b that decode the counted contents and output a display command to the display 83, and the decoder drive circuit 88a is connected to l0cI.
The bar display section 83a for I is connected, and the decoder/
A meter display section 83b is connected to the drive circuit 88b.

The 10cm bar water 83a has 9 segment display elements 83a, 83a, 83a, 83b, 83b, 83b, 83b, 83b, 83b, 83b, 83b, 83b, 83b, 83a, 83b, 83b, 83a, 83a, 83a, 83a, ?
It is composed of 3a9 arranged in a horizontal line, and
The meter display section 83b is capable of three-digit digital display.

The second counting circuit 89 is for measuring the water depth from the bottom or shelf position, and counts up the pulses from the counting pulse generating circuit 85. The contents of this counting circuit 85 are transmitted to a display 84 via a decoder drive circuit 90.
It is said that he will appear in the meeting.

A determination circuit 91 is connected to the reed switches 77a and 77b, which determines the yarn payout and yarn winding directions by taking in these output signals. When the input signal is input before the output signal of the switch 77b, it is determined that the yarn is in the yarn feeding direction, and an up-count command is given to each counter 87a, 87b of the first counting circuit 86. When the output signal is input before the output signal of the reed switch 77a, it is determined that the yarn winding direction is in progress, and a down-count command is given to each counter 87a, 87b of the first counting circuit 86.

Judgment circuit 91. Counting circuits 86, 89. counter 87a,
87b, decoder drive circuit 88a;

88b and 90 constitute yarn length calculation means.

The counting circuits 86 and 89 are configured to receive reset signals from reset buttons 92 and 93 for clearing the counting contents, and these reset buttons 9
2.93 is provided with a waterproof structure on the surface of the yarn length measurement and display unit 81, as shown in FIG.

A mode switching switch 95 for switching modes such as input and correction is provided between the reset buttons 92 and 93.

An analog display section 96 is formed on the left side of the display 831 and the display 84.

Further, a reset button 93 for clearing the count contents of the second counting circuit 89 is a set switch 94.

This set switch 94 is used to set the section in which the yarn length is displayed in analog form.
When the result is N, the count contents of the second counting circuit 89 are cleared, and the relative position of the device is displayed on the analog display section 96 with reference to the position of the device at this point.

As shown in FIG. 14, this analog display section 96 includes a water surface lighting section 97 that displays the water surface, and a set switch 9 that is turned off.
a set point lighting section 98 indicating the position of the device determined as N;
Water surface lighting section 97. It is composed of 11 lighting parts 99F, 99PI arranged on the sides of the set point lighting part 98 and 3 arranged below the setting point lighting part 98, and these lighting parts 97, 98 . 99□ to 99Pl- are formed of, for example, light emitting diodes.

That is, when the set switch 94 is turned on, the counting contents of the second counting circuit 89 are reset, and the fishing line 5
The point at the feeding length of 7 becomes the set point lighting section 98, and this feeding length is, for example, the decoder drive circuit 8.
It is divided into 10 equal parts at 8a and 88b, and is formed to light up according to the feeding or winding of the fishing line 57, and furthermore, the part corresponding to the position of the fishing tackle is formed to blink.

The lighting units 97, 98.99F, to 99P+4 display negative bars, respectively, by lighting or blinking.

For example, if the display 83b indicates 100m, that is,
When the set switch 94 is turned on after 100 m, the display 84 is reset to ro and oJ, the water surface lighting section 97 and the set point lighting section 98 are lit, and the lighting sections 9'9P1 to 99,1° are turned on. It lights up, the lighting section 99□1 blinks, and a bar is displayed.

The distance between the bars is 100m+10=10m.

When the fishing line 57 is wound up from this state and the display on the display 83 reaches 80.0 m to 89.0 m, the water surface lighting section 97 and the set point lighting section 98 light up, and the lighting sections 99□ to 9
9de, lights up, and the lighting section 992. flashes.

Meanwhile, the set switch 94 is turned on, the fishing line 57 is let out, and the display 83 shows 110.0 m to 119.0 m.
When this happens, the water surface lighting section 97 and the setting point lighting section 98 light up, and the lighting sections 99F1 to 99,1□ light up.
The lighting section 99□ blinks.

Then, when the set switch 94 is turned on in a state where the robot has extended 110.0 m to 119.0 m, this point becomes a new reference point.

Next, the operation of this embodiment configured as described above will be explained in the 15th section.
This will be explained with reference to the figures and FIG.

First, as shown in Fig. 16, a fishing rod 1°3 equipped with the fishing reel of this embodiment was set on a boat 1°1 that went offshore.
A fishing line 57 connected to a tackle (not shown) is let out from the tip of the rod. At this time, the distance from the rod tip to the water surface 105 is 3.5
Let it be m.

That is, when the reel clutch is released to free the spool 53 with the line length measurement display unit (81) set to the operating mode, the fishing line 57 is sequentially let out from the spool 53 by the weight of the weight attached to the tackle. Start lowering the rod from the tip. As a result, when the spool 53 rotates, the rotating roller 63 that is in pressure contact with the outer peripheral surface of the wound yarn rotates, and the rotation is transmitted to the yarn length measuring gear 73 through the gear train 65 - shaft 67 - gear train 71. The line length measuring gear 73 is rotated in proportion to the amount of fishing line 57 being fed out. Since the magnet 75 crosses the reed switches 77a and 77b every time the yarn length measuring gear 73 rotates once, a signal is sent from the reed switches 77a and 77b. Upon receiving this output signal, the determination circuit 91 recognizes that the signal has been input from the reed switch 77a first, and gives an up-count command to each counter 87a, 87b of the first counting circuit 86.
a and 87b are made to perform an up-count operation.

Therefore, by applying the output signals of the reed switches 77a and 77b to the counting pulse generation circuit 85, the pulses generated from this circuit 85 are transmitted to the first and second counting circuits 8.
At the same time, the contents counted by the 10cm up/down counter 87a of the first counting circuit 86 are outputted to the bar display section 83a through the decoder drive circuit 88a, and are driven by the bar display section 83a. Displays the unit. Further, the count contents of the 1 m up/down counter 87b are outputted to the digital display section 83b through the decoder/drive circuit 88b, and are displayed in units of 1 m.

On the other hand, the second counting circuit 89 is connected to the counting pulse generating circuit 85.
The pulses are sequentially counted up, and the counted contents are outputted to the display 84 through the decoder drive circuit 90 and displayed.

Here, when the fishing line 57 reaches the water surface 105 from the tip of the rod as shown in FIG. 16, the display states of the respective indicators 83 and 84 become as shown in FIG. 15(a).

When the fishing line 57 reaches the water surface 105, the contents of the first counting circuit 86 are reset by operating the reset button 92. The display status of each display 83 and 84 at this time is shown in Figure 15 (
Shown in b).

Thereafter, the fishing line 57 is lowered until it reaches the bottom 107 shown in FIG. 16. When the tackle reaches the water bottom 107, the feeding of the fishing line 57 is stopped, and therefore the counting operation is also stopped. At this time, assuming that the water depth to the bottom 107 is 125.3 m, the display contents of each indicator 83.84 are the 15th
The result is as shown in Figure (C).

When the fishing line 57 has reached the bottom 107 and the fishing line 57 is to be shelved from the bottom 107 for sea bream fishing or squid fishing, the content of the second counting circuit 89 is first reset by operating the reset button 93. .

At this time, the displays on the display sections 83a, 83b and the display 84 are as shown in FIG. 15(d). Here, assuming that the shelf position is 10 m from the water bottom 107, the handle 55 is operated to rotate the spool 53 in the winding direction. When the spool 53 rotates, the rotation is transmitted from the rotating roller 63 to the yarn length measuring gear 73 via the gear train 65.71, so as the yarn length measuring gear 73 rotates, the reed switches 77a and 77b turn ON-OFF. , its output signal is supplied to a counting pulse generation circuit 85 and a determination circuit 91. At this time, since the yarn length measuring gear 73 rotates in the opposite direction to the above case, the determination circuit 91 receives a signal from the reed switch 77b first, and as a result, the determination circuit 91 receives a signal from the reed switch 77b first.
1 gives a down count command to the counters 87a, 87b of the first counting circuit 86.

Therefore, each counter 87a of the first counting circuit 86.

87b performs a down-count operation by a pulse from the counting pulse generating circuit 85. As a result, the fishing line 57 is
When the shelf position 10 m from 07 is reached, the display contents on the display 84 and the display contents on the display sections 83a and 83b become as shown in FIG. 15(e). That is, the display 84 shows the water bottom 1.
The water depth from 07 is displayed, and the water depth from the water surface 105 is also displayed on the display 83.

After that, by winding the fishing line 57 one after another, the fishing line 57 is
When reaches the water surface 105, the content of the display 83 becomes rQ, as shown in FIG.
It becomes 125.3J.

On the other hand, as shown in FIG. 15(e), from the water bottom 107 to 10
If a target fish is caught at a water depth raised by m, and this water depth is to be set as the shelf position of the target fish, operate the reset button 93 to reset the contents of the second counting circuit 89,
The display state shown in FIG. 15 (6) is established. Thereby, the display 83 can be used as a shelf memory. Figure 15 (b)
shows the display state of each indicator 83 and 84 when the fishing line is wound up from the set shelf position to the water surface 105.

Here, a case in which the position of the device is displayed in analog form will be specifically explained.

First, from the state shown in FIG. 17 to the state shown in FIG. 18,
The fishing line 57 is let out to the bottom 107 of the water. Assuming that the depth of the water bottom 107 is 100 m, the display 83b shows r
"loo" is displayed.

Here, when the set switch 94 is pressed to turn ON, the display 84 is reset to RO and OJ, and the water surface lighting section 97 is reset to RO and OJ.
The setting point lighting section 98 is lit, the lighting sections 99PI to 99P1° are lit, and the lighting section 99□ is blinking, and a bar is displayed. In this state, the distance between the bars is 1
00m÷l O=10m.

From this state, as shown in FIG.
When it is rolled up m, the display on the display section 83b becomes "85", and the display on the display section 84 becomes r15. 'O.

, the water surface lighting section 97 and the setting point lighting section 98 light up, and the lighting sections 99PI to 99,8 and 99P,
1 lights up, the lighting section 99F blinks, and a bar is displayed.

In the fishing reel configured as described above, the indicator 84
Since the water depth at the bottom 107 or from the shelf position can be displayed, the water depth can be determined reliably and easily when fishing for sea bream, squid fishing from the bottom 107, or by hoisting up from the bottom 107 corresponding to the length of the Harris. This makes it easier to respond to these types of fishing.

Moreover, since the display 83 can be used as a water depth memory when a fish is hit, it becomes convenient when dropping the bait next time, and the fishing results can be improved.

However, with the fishing reel configured as above,
By letting out the fishing line 57 and setting the tackle at a predetermined depth, and in this state, turning on the set switch 94, the digital display point of the display 83, 84 at this time, that is, when the set switch 94 is turned on, is displayed. The position of the device becomes the reference for analog display, and the relative position of the device to this position is displayed in analog by the analog display section 96. By displaying the position of the device in analog, the relative position of the device with respect to a fixed position is displayed in analog form. You can understand the location at a glance.

Thereby, it is possible to quickly and easily judge the amount of the fishing line 57 being fed out and the amount of winding up.

In the above embodiment, one lighting section 43, 45°47.
1-47. ,,． 97,98.99□~99. ,.

Although an example in which a book bar is displayed has been described, the present invention is not limited to the above embodiment.
For example, as shown in FIG. 20, the lighting section 121 itself is formed to be lit in a rectangular shape, the lighting section 121 is lit up to the part corresponding to the position of the device, and the part corresponding to the position of the device is blinked. In this case, substantially the same effect as in the above embodiment can be obtained.

Further, as shown in FIG. 21, the lighting section 123 itself is formed in a rectangular shape so that the lighting section 123 itself is lit in a rectangular shape, and the lighting section 123 corresponding to the position of the device is not illuminated. Even if only the portion 123 is made to blink, substantially the same effect as in the above embodiment can be obtained.

Furthermore, as shown in FIG. 22, the lighting sections 125 may be formed to display a single bar, and these lighting sections 125 may also display bars diagonally, and the analog display section may be configured to display a single bar at the position of the device. As long as it can be displayed in analog form, almost the same effect as the above embodiment can be obtained regardless of the configuration.

Further, in the above embodiment, an example was explained in which a line length measurement and display system using the sensor 29 and a line length measurement and display system using the roller 63 were mounted on a fishing reel. The present invention is not limited to this, and regardless of the configuration of the yarn length measurement and display system, substantially the same effects as those of the above embodiments can be obtained.

Furthermore, in the above embodiment, an example was explained in which the space between the water surface lighting sections 43, 97 and the setting point lighting sections 45.98 was divided into 10 equal parts, but the present invention is not limited to the above embodiment; 9 between the lighting section and the setting point lighting section
Even if it is equally divided into the following or 11 or more parts, almost the same effect as in the above embodiment can be obtained.

Further, in the above embodiment, the display device 82 is the display device 83 .
84, and the display device 83 is configured from the bar display section 83a and the display section 83b. However, the present invention is not limited to the above embodiment, and the display device may have other configurations, For example, even if all the displays are configured to display digitally, substantially the same effect as in the above embodiment can be obtained.

〔Effect of the invention〕

In the fishing reel of the present invention, when the fishing line is let out or wound up, the rotation of the spool is detected by the detection means, and the line length is is calculated, and the calculated yarn length is displayed by the yarn length digital display means.

In addition, by letting out the fishing line and setting the tackle at a predetermined depth, and turning on the set switch in this state, the digital display point of the line length digital display means at this time, that is, the tackle when the set switch is turned on, can be adjusted. The position becomes the reference for the analog display, and the relative position of the work in progress with respect to this position is displayed by the thread length analog display means.
As a result, the position of the device can be displayed in analog form, and the relative position of the device relative to a fixed position can be grasped at a glance.

[Brief explanation of the drawing]

FIG. 1 is a plan view of a fishing reel equipped with a line length measuring device according to an embodiment of the present invention. FIG. 2 is an overall configuration diagram of the yarn length measuring device in this embodiment. FIG. 3 is a plan view showing the analog display section and its vicinity. FIG. 4 is an explanatory diagram of the spool in this embodiment. FIG. 5 is a flowchart showing the procedure for yarn length measurement and display in this embodiment. FIGS. 6 to 11 are plan views showing analog display of the position of the device. FIG. 12 is a plan view of a fishing reel equipped with a line length measuring device according to another embodiment of the present invention. FIG. 13 is an overall configuration diagram of the yarn length measuring device in this embodiment. FIG. 14 is a plan view showing the analog display section and its vicinity. FIGS. 15(a) to 15(5) are explanatory diagrams of the display section in this embodiment. FIG. 16 is an explanatory diagram showing the relationship between the fishing line and water depth in this embodiment. FIGS. 17 to 19 are plan views showing analog display of the position of the device. FIGS. 20 to 22 are plan views showing other examples of the analog display section. [Explanation of symbols of main parts] 51...Reel body 53...Spool 57...Fishing line 94...Set switch. Figure Figure Figure 12 Tooth Figure Figure! 5 Figure 16

Claims (1)

[Claims] (1) A spool that is rotatably supported by the reel body and around which the fishing line is wound, a detection means that detects the rotation of this spool, and a line length that is determined based on the feeding rotation signal and the winding rotation signal from this detection means. A yarn length calculation means for calculating, a yarn length digital display means for digitally displaying the yarn length calculated by the yarn length calculation means, a set switch for setting the interval for analog display of the yarn length, and turning on this set switch.
1. A fishing reel comprising a line length analog display means for analog displaying the relative position of a tackle with respect to a digital display point of the line length digital display means at a time when the line length digital display means is a reference position.