JP2016015888A - Information processing system for fishing - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an information processing system for fishing that can be easily attached to a fishing reel and support an angler for improving a fishing result.SOLUTION: An information processing system for fishing that can be attached to a fishing reel includes: rotation detection means for detecting the rotation of a reel; a selection switch for selecting a lure type corresponding to a lure actually used from lure types corresponding to a plurality of lures that an angler can use; and data processing means for storing a lure parameter preset for each of the lure types corresponding to the plurality of lures, and calculating the number of rotations and an angular speed of the reel during the time from the winding start to the winding end based on a pulse signal from the rotation detection means and the lure parameter preset for the lure type selected by the selection switch.SELECTED DRAWING: Figure 2

Description

  The present invention relates to an information processing system for fishing that can be easily attached to a fishing reel and analyzes data detected by operating the reel.

  In general, there are scenes where it is important to keep winding at a certain speed in the fishing world, especially lure fishing, etc. Shallow minnow).

  An angler who is proficient in reel operation controls the lure shelf (swimming layer) at a constant speed according to his own sense of resistance when winding the lure and timing based on experience. Since the depth varies depending on the type of lure even at the winding speed, more fish can be caught by changing the lure and controlling the appropriate speed through the shelf (swimming layer).

  Conventionally, a fishing reel provided with a rotation detecting device has been provided. Such a rotation detecting device mainly relates to an electric reel for bait fishing, and casts a lure like lure fishing ( Throwing and winding up (side fishing) is not something to keep in mind. For this reason, no device for measuring the rotational speed of a spinning reel intended for throwing is provided.

JP 2013-42694 JP-A-2005-176702

  In recent years, it became clear that trout fishing lures and salt lures have a large difference in fishing results when the reels are wound at a constant speed at a more accurate number of revolutions. The technique is becoming indispensable for high lure fishing. In addition, since the reel winding pattern requires various techniques to change, more detailed angular velocity (time required to rotate a predetermined angle) data is required than information on the simple rotation speed of the reel. Become.

  The present invention can be easily attached to a fishing reel, and in lure fishing, data obtained by detecting rotation of a reel operated by a fisherman is analyzed, calculated, displayed, or preset various parameters Accordingly, an information processing system for fishing that supports anglers to improve fishing results is provided.

  In addition, the present invention can be easily attached to a fishing reel, and can be applied as an input device of an information processing system for fishing, and can detect the rotation of the reel operated by the angler and accurately rotate the reel. Provided is a rotation detection device capable of obtaining a number and an angular velocity.

  In addition, the present invention grasps the reel winding speed and winding method (strength, etc.), which has been an ambiguous sensation, as a more accurate numerical value, and visually shows the target winding speed preset by the angler. An information processing system for fishing that can lead to

  The present invention also provides an information processing system for fishing that can communicate with a smartphone, a wearable device, and the like.

  In addition, the present invention provides a rotation detection device that can detect the rotation of the reel operated by the angler and obtain the accurate rotation speed and angular velocity of the reel, so that the rotation of the reel is not limited to one rotation. An information processing system for fishing specialized in lure fishing, which is horizontal fishing, capable of measuring even fine angular velocities.

  An information processing system for fishing that can be attached to a fishing reel according to the present invention includes a rotation detection unit that detects rotation of a reel and outputs a pulse signal indicating the detected rotation, and a plurality of anglers that can be used by an angler. A selection switch that selects the lure type that corresponds to the lure that is actually used from among the various lure types that correspond to the lure, and the preset lures for various lure types that correspond to multiple lures. Data processing means for storing parameters and connected to the rotation detection means and the selection switch, the pulse signal output from the rotation detection means, and the lure preset for the lure type selected by the selection switch Data processing means that calculates the reel rotation speed and angular velocity from the beginning to the end of reel winding based on parameters , Is connected to the data processing means, comprising at least, a luer type selected by the selecting means, display means for displaying the rotational speed and the angular velocity of the computed reel, the.

  In addition, an information processing system for fishing that can be attached to a fishing reel of the present invention is connected to data processing means instead of the above-described display means, and communicates with mobile devices including smartphones and wearable devices. Including at least a Luer type selected by the selection means and a calculated reel rotation speed and angular velocity to the mobile device.

  In addition, the rotation detection device that detects the rotation of the reel that can be attached to the fishing reel mounted on the fishing rod of the present invention is arranged on the opposite side of the reel handle so as to rotate in synchronization with the rotation of the reel handle. A rotating body with a magnet to be attached, the rotating body with a magnet having a plurality of magnetic bodies arranged alternately in N and S poles so as to surround the rotation axis of the rotating body with magnet, and fixed to a fishing rod, An adjustable hinged guide having a Hall IC, wherein the Hall IC is arranged to face the magnetic body in order to detect a change in magnetism due to rotation of the rotating body with magnet. The Hall IC outputs a pulse signal indicating a change in magnetism.

FIG. 1 is a block diagram showing an outline of an information processing system for fishing according to the present invention. FIG. 2 is a flowchart for explaining the main process in the data processing means of the information processing system of the present invention. FIG. 3 shows a flowchart for explaining the rotation trigger interruption processing. FIG. 4 is a time chart showing the timing of a rotation trigger, a landing command, a winding start command, angular velocity data, and a winding end command with respect to the pulse signal output from the rotation detection means. FIG. 5 shows a model of the information processing system of the present invention and wearable devices such as a smartphone, a glasses-type display device, and a wristwatch-type device that can communicate with each other. FIG. 6 is a flowchart illustrating processing that can be performed between the wearing device and the smartphone and that can communicate with each other. FIG. 7A shows a configuration of a rotation body with a magnet of a rotation detection device applicable to the present invention, which can be mounted on a spinning reel and can detect the rotation speed and angular velocity of the reel. FIG. 7B is an assembly diagram of the rotor with magnet shown in FIG. 7A. FIG. 8 shows a time chart of output signals detected by the Hall IC during one rotation of the spinning reel handle. FIG. 9A is an upper perspective view showing a usage pattern of the present invention in which a mounting device is attached to a fishing rod equipped with a spinning reel. FIG. 9B is a side view showing the usage pattern of the present invention, similar to FIG. 9A. FIG. 10A is a front view showing an example of a specific configuration for mounting the detection unit of the rotation detection device on a spinning reel and a fishing rod. FIG. 10B is a side view illustrating an example of a specific configuration for mounting the detection unit of the rotation detection device on the spinning reel and the fishing rod, similarly to FIG. 10A. FIG. 11A is an upper perspective view showing an appearance of a mounting device configured as a simplified version. FIG. 11B is an upper perspective view showing the appearance of the mounting device configured as a mobile version.

  FIG. 1 is a block diagram showing an outline of an information processing system 10 for fishing according to the present invention. The information processing system 10 is selectively used as an input means, a rotation detecting means 11 and various function switches 12 to 15, a data processing means 16 such as a microcomputer for processing signals from the input means, and an output means. A simple version of the display means 17, an RF module 18 for data communication used in the mobile version, and a power supply circuit 19 driven by a small battery such as a button battery.

  The rotation detecting means 11 is a rotation detecting device capable of detecting the number of rotations and the angular velocity of a reel that can be easily attached to a spinning reel that is currently commercially available, and includes, for example, a rotating body with a magnet and a Hall IC. When the reel starts to be wound, the Hall IC detects a change in the magnetic field of the rotating body with a magnet using the Hall effect, and outputs a pulse signal corresponding to the number of rotations and the angular velocity of the reel.

  The power / call switch 12 turns on the power to bring the information processing system 10 into an operating state and initializes it. On the other hand, from the rotation detection device 11 or the function switches 12 to 15, For example, if there is no input for 3 to 5 minutes, the power supply is automatically turned off.

  The landing switch 13 counts down the timer when the angler throws a lure and presses it at the same time, and the flying distance (reel winding amount) is based on the previously entered lure parameter. Allows calculations such as lure depth.

  The mode switch 14 is prepared when an arbitrary application is applied to add an optional function, for example.

  The selection switch 15 selects various parameters that are input and set in advance according to the lure that is actually used from among a plurality of lures that can be used by the angler. For example, when a predetermined switch command 1 is selected by operating the selection switch 15, a corresponding lure type is selected, and a preset luer parameter is called for that type. If switch command 1 is selected, luer type A is selected, if switch command 2 is selected, luer type B is selected, and so on.

  Table 1 illustrates specific luer parameters for selected crank types.

  The standard flight distance indicates the standard flight distance when the angler throws the lure. The equilibrium speed indicates a speed at which the buoyancy of the lure and the submarine force balance at a sufficient distance (for example, 10 m or more) of the lure. The balance / winding amount complementation coefficient indicates the complementation coefficient since the buoyancy of the lure and the force pulling the lure to the water surface are added at a short distance when the fishing line is wound. The maximum speed indicates the maximum speed at which the lure will dive without breaking the balance. The submarine coefficient at the maximum speed indicates how many centimeters per second when the lure is thrown at the maximum speed. The subsidence coefficient at the intermediate speed indicates a value predicted by how many centimeters per second is subsidized as an intermediate value because the submarine speed is nonlinear when the lure is thrown. In addition, you can set the lure starting depth after throwing the lure, the reel winding speed, the reel winding amount, the approximate lure depth predicted from the winding amount, etc. as luer parameters . These lure parameters are displayed on the display means 17.

  FIG. 2 shows the main in the data processing means 16 of the information processing system of the present invention, which is configured for trout fishing in a managed fishing shore where the competitiveness such as a tournament is high and the accuracy of the reel winding speed is extremely important. The flowchart for demonstrating a process is shown.

  The main process starts by turning on the power / call switch 12 (step 1).

  In step 2, when the switch command 1 is selected, the corresponding luer type A luer parameter is called, and various parameters are displayed on the display means 17. At the same time, the timer reset flag is turned ON, and the timer is reset (step 3).

  When the lure thrown by the angler lands, when the landing switch is turned on, a landing command is generated and a timer countdown is started to determine the lure depth (step 4). . If the lure used is a sinking lure, the countdown proceeds as the lure sinks, and the lure depth is calculated momentarily based on the preset lure parameter subsidence (sinking) factor, and the display means 17 is displayed. If the angler begins to wind the reel handle when the lure has landed, or if the angler begins to wind the reel handle even if the lure has not landed, the timer countdown will stop, thereby The depth is determined and displayed on the display means 17. The routine ends upon determination of the lure depth (step 5).

  If the lure used is a floating lure, when a switch command other than switch command 1 (switch command 2 or 3) is selected in step 2, the floating lure corresponding to the selected switch command is selected. The luer parameter of the lure (eg, crankbait type) is recalled, and steps 3 to 5 are performed as if switch command 1 was selected, and the routine ends upon determination of the lure depth. (Step 6).

  After the lure has landed, the angler will refer to the lure depth display data by determining the lure depth based on the preset lure parameter of the crankbait type corresponding to the selected switch command The depth of the lure shelf (swimming layer) or fishing ground can be confirmed, and the proper speed of the lure passing through the shelf (swimming layer) can be recognized according to the type of lure.

  When the angler starts winding the reel under the selected switch command, it is determined that there is a rotation trigger (step 7), the timer reset flag is turned on, and the timer is reset (step). 8). By this determination, the rotation detection means 11 outputs a pulse signal to indicate the rotation speed and angular velocity of the reel.

  The data processing unit 16 processes falling and rising of the waveform of the pulse signal output from the rotation detection unit 11 as a trigger event. In step 9, it is determined whether or not to start winding the reel. At this time, in order to avoid malfunction, it is determined that winding starts when a plurality of pulse signals are detected. When the start of winding is determined, a winding start command is generated in step 10, and then in step 11, rotation trigger interruption processing is permitted. When the rotation trigger interruption process is permitted, the winding end determination timer starts measuring time to determine the end of reel winding (step 12).

  If there is no rotation trigger (step 7) or no reel start determination is made (step 9), the routine returns to the first step 1 of the main process.

  FIG. 3 shows a flowchart for explaining the rotation trigger interruption processing.

  As described above, when the rotation trigger interruption process is permitted, the pulse measurement timer reset flag of the pulse signal output from the rotation detection means 11 is turned ON, and the pulse measurement timer is reset (step 111). The pulse polarity is determined. The pulse measurement timer sets a count to several milliseconds, measures the ON / OFF state interval of the pulse signal while the trigger state is maintained, and detects the count every time the pulse signal is inverted. Based on the count value, the number of rotations of the reel and the angular velocity (time required for rotating a predetermined angle) are calculated and displayed on the display means.

In step 112, edge inversion determination is performed when the potential of the pulse signal output from the rotation detecting means 11 changes. At the beginning of winding, the edge inversion determination is OFF, the pulse determination flag is turned ON (step 116), the pulse measurement timer is started, and the time is measured (step 117). The timer is kept until the next edge inversion is performed. (It takes tens of milliseconds until the next edge reversal, no matter how fast the human rolls the reel.)
When the edge inversion determination is ON in step 112, that is, when the potential of the pulse signal output from the rotation detecting means 11 changes from the Hi state to the Low state or from the Low state to the Hi state, the pulse determination flag is turned OFF ( Step 113), the time measurement by the pulse measurement timer is stopped (Step 114), and the pulse width data indicated by the count value of the pulse measurement timer is stored in the storage means included in the data processing means 16 as appropriate. Based on the data, the rotation speed and angular velocity of the reel are calculated (step 115).

  In the next routine, the edge inversion determination is left as it is (OFF), the pulse determination flag is turned ON again (step 116), and the pulse measurement timer is turned ON (step 117). Both pulse widths (Hi side and Low side) can be measured.

  Reel end of winding can be determined by monitoring the end of winding timer that has started timing by permitting rotation trigger interruption processing (step 12) and determining that there is no rotation trigger for several seconds (step 118). . When the end of winding is determined, the winding end determination timer is turned off and a winding end command is generated (step 119). The winding end command disables the rotation trigger interrupt process (step 120). If the end of winding is not determined (step 118) or the rotation trigger interrupt processing is not permitted, the routine returns to step 1 of the main process.

  The reel winding distance can be calculated and displayed based on the number of rotations and angular speeds from the beginning to the end of the reel, and the angular speed obtained through the main process step and trigger interrupt processing step. is there.

  FIG. 4 shows a rotation trigger, a landing command generated when the landing switch is turned on, a winding start command generated by determining the reel winding start, and a rotation trigger for the pulse signal output from the rotation detecting means 11. 5 is a time chart showing the angular velocity data generated by, and the timing of a winding end command generated by determining the end of winding. As shown in this time chart, the winding start command is generated when multiple pulse signals are detected to avoid malfunction, and the winding end command is generated when there is no rotation trigger for several seconds. Is understood.

  The angler refers to the rotation speed and angular speed data from the beginning of the reel to the end of the reel. The proper speed of the lure by winding can be freely controlled, and the reel can be wound uniformly at a more accurate rotational speed. As a result, even for highly competitive lure fishing, a more advanced fishing strategy based on data is possible, rather than a reel-oriented technique that emphasizes sensation.

  The present invention can be configured as a mobile version capable of communicating with a smartphone or the like via the RF module 18 instead of the display unit 17 in FIG. For example, it is possible to share and display various display data in the information processing system 10 by a smartphone using an RN42microchip that is a TELE certified product as an RF module and using a short-range wireless technology such as Bluetooth (TM). it can.

  FIG. 5 shows that a mounting device 52 including the information processing system 10 without the display means 17 (simplified version) is attached to a fishing rod 51 provided with a spinning reel 50, and the mounting device 52 and the smartphone 53 that can communicate with each other. Modeled and shown. Data that can be shared between the information processing system 10 of the mounting device 52 and the smartphone 53 and that can be displayed on the smartphone 53 is, for example, in communication such as the address of the information processing system 10 that is in communication, the remaining battery level, and a system error. Information processing system 10 state, angular velocity, landing switch signal, reel winding start state signal, reel winding end state signal, various function switch signals, and the like.

  In addition, as internal data of the smartphone 53, individual information of various usable lures (luer parameters), individual information of various usable reels (winding amount per one rotation), winding from the beginning of reel winding Amount, winding amount log (on the day of fishing), date time, lure dive obtained by calculation, swimming depth, etc. can be stored.

  Further, the information processing system 10 uses a short-range wireless technology such as Bluetooth, and wearables such as a glasses-type display device 54 and a wristwatch-type device 55 that incorporate an OS similar to that of the smartphone via the smartphone 53. -Various display data can be shared and displayed in conjunction with the device. On the mobile device side such as a smartphone or wearable device, a unique identification code is input in advance, so that even if the mounting device 42 of the information processing system 10 is attached to several bags, they interfere with each other. There is nothing to do.

  FIG. 6 is a flowchart illustrating processing that can be performed between the wearing device 52 including the information processing system 10 and the smartphone 53 functioning as a host.

  When the power / call switch 12 is turned on (step 60), the information processing system 10 starts its operation, and in step 61, the information processing system 10 is initialized as described above to communicate with the smartphone 53. In order to enable the communication interruption processing, and further, the timing of the OFF timer is started, and there is no signal input from the rotation detecting means 11 or the various function switches 12 to 15 for a predetermined time, for example, 3 to 5 minutes. In addition, in order to end the operation of the information processing system 10, the power is automatically turned off.

  When the communication interrupt process is permitted, the RF module 18 is initialized (step 62). For example, when data transmission between the data processing means 16 and the RF module is performed according to USART (Asynchronous Serial Communication Standard) and Bluetooth (TM) is adopted, the RN42 microchip is initialized as a Bluetooth module.

  Next, in step 64, the data processing means 16 executes host call transmission to request communication with the smartphone 53 via the RF module 18. In response to this request, the smartphone 53 executes host return transmission.

  When receiving the host return transmission from the smartphone 53 via the RF module 18, the data processing means 16 determines the completion of the host return reception (step 65).

  When it is determined that the host return reception is completed, the procedure after step 1 of the main process and the procedure after step 11 of the trigger interrupt process are executed as described in detail with reference to FIGS. .

  If the completion of host return reception is not determined, or if the main process is completed, the procedure from step 64 is repeated (step 63).

  FIG. 7A is a rotation detection device applicable as the rotation detection means of the present invention, and shows a configuration of a rotating body with magnet 70 included in the rotation detection device that can be mounted on a spinning reel and can detect the rotation of the reel. FIG. 7B is an assembly view of the rotating body with magnet 70 shown in FIG. 7A.

  The rotation detecting device includes a rotating body with magnet 70 functioning as an encoder, and is fixed to the spinning reel by a screw 72 via a spacer 71 so as to rotate in synchronization with the rotation of the spinning reel handle. The main body of the rotating body with magnet 70 is made of a light metal such as a non-magnetic aluminum alloy or resin, and a plurality of small magnetic bodies (neodymium magnets) 73 are alternately arranged so as to surround the rotating shaft. The If the magnetic body 73 has 12 poles, the magnetism changes every 30 degrees, and if the magnetic body 73 has 2 poles, the magnetism changes every 180 degrees. In order to detect a change in magnetism due to the rotation of the magnetic body 73, a Hall IC is disposed facing the magnetic body 63.

  FIG. 8 shows a time chart of an output signal detected by the Hall IC during one rotation of the spinning reel handle when the magnetic material 73 is a 12-pole type (measurement every 30 degrees). By rotating the rotating body with magnet 70 (encoder), the magnetic flux density is continuously changed alternately between the N pole and the S pole. This change in magnetism is detected by the Hall IC, and the polarity of the alternating N pole and the S pole is changed. It is output as a pulse signal that changes to a Low state and a Hi state according to the change. As can be seen from the illustrated pulse signal, when the angler operates the spinning reel handle early and late, the output of the pulse signal is shown as a change in pulse width and a change in frequency. In this manner, the reel rotation speed and angular velocity can be detected based on the pulse signal output from the rotation detection device. The detection data can be freely displayed such as a moving average speed of 12 times and a real-time speed every 30 degrees depending on the application design as required.

  FIG. 9A is a top perspective view showing a usage pattern of the present invention in which a mounting device 52 including the information processing system 10 is attached to a fishing rod 91 having a spinning reel 90, and FIG. 9B is a side view thereof. .

  The rotating body with magnet 70 is arranged so as to rotate in synchronization with the rotation of the handle 91 of the spinning reel 90, and is disposed on the opposite side of the handle 91, and is fixed to the spinning reel 90 with a screw 72 via a spacer 71. Is done. Since the spinning reel 90 is designed to accommodate both right-handed and left-handed turns (the handle can be attached to both sides by a screw-type fixing method), it can be easily mounted on the opposite side of the handle 91 and the handle. It can rotate in conjunction with. Normally, the diameter and pitch of the mounting screws used vary depending on the manufacturer and the reel dimensions that provide the spinning reel. Therefore, it is easy to make a rotating body with a magnet into a spinning reel by preparing multiple attachments as appropriate. It can be attached to.

The rotation detecting device includes a rotating body 70 with a magnet and a detecting section 93 in which a Hall IC is prepared at the tip of a hinged guide 92 and the inside is waterproofed with silicon resin or the like. The detecting section 93 includes the rotating body 70 with a magnet. In order to detect a change in magnetism due to the rotation of the magnet, the magnet 70 is disposed to face the magnetic body 73 of the rotating body 70 with a magnet, and is attached to the main body of the spinning reel 90 via a hinged guide 92. The detection unit 93 and the mounting device 52 are electrically connected by a cable 94. The mounting device 52 is attached, for example, in front of the handle 95 of the fishing rod 91 in consideration of the angle of view of the angler. FIG. 10A is a specific example for mounting the detection unit 93 of the rotation detecting device to the spinning reel 90 and the fishing rod 91. It is a front view which shows an example of a typical structure, FIG. 10: B is a side view of such a structure.

A hinged guide 92 having a detecting portion 93 at the tip is fixed to the mounting base 100.
The hinged guide 92 has hinges at two locations. The mounting base 100 has a belt 101 for mounting on the fishing rod 91, and the mounting base 100 is fixed to the fishing rod 91 by winding the belt 101 around the fishing rod 91. The hinged guide 92 has a belt 102 for mounting on the spinning reel 90, and the hinged guide 92 is fixed to the spinning reel 90 by winding the belt 102 around the spinning reel 90. The rotation detection device can handle both right and left spinning of the spinning reel, and the belt 102 for mounting on the spinning reel 90 is secured to the fishing rod 91 while the spinning reel 90 is fixed to the fishing rod 91. It is mounted on the front and rear of the foot, that is, rearward for right-handed use and forward for left-handed use. Moreover, the detection part 93 can acquire optimal detection sensitivity with respect to the magnetic body 73 of the rotary body 70 with a magnet by adjusting the guide 92 with a hinge appropriately.

  FIG. 11A is an upper perspective view showing the appearance of the mounting device 52 configured as a simplified version, and FIG. 11B is an upper perspective view showing the appearance of the mounting device 52 'configured as a mobile version. Both the mounting devices 52 and 52 ′ include a plurality of function switches 110. However, the simplified version of the mounting device 52 includes a small liquid crystal display 111, and the mobile version of the mounting device 52 ′ can be replaced with a liquid crystal display. For example, a battery holder 112 is provided.

10: Information processing system 11: Rotation detection means 12: Power / call switch (function switch)
13: Landing switch (function switch)
14: Mode switch (function switch)
15: Selection switch (function switch)
16: Data processing means 17: Display means 18: RF module 19: Power supply circuit 50: Spinning reel 51: Fishing rod 52, 52 ': Wearing device 53: Smartphone

Claims (6)

An information processing system for fishing that can be attached to a fishing reel,
Rotation detection means for detecting rotation of the reel and outputting a pulse signal indicating the detected rotation;
A selection switch for selecting a lure type corresponding to a lure actually used from among lure types corresponding to a plurality of lures usable by anglers,
A lure parameter preset for each of the lure types corresponding to the plurality of lures is stored, data processing means connected to the rotation detection means and the selection switch, from the rotation detection means Based on the output pulse signal and the lure parameter preset for the lure type selected by the selection switch, the reel rotation speed and angular velocity from the beginning to the end of winding of the reel. Data processing means for computing
Display means connected to the data processing means and displaying at least the lure type selected by the selection means, and the calculated rotation speed and angular velocity of the reel;
Information processing system including An information processing system for fishing that can be attached to a fishing reel,
Rotation detection means for detecting rotation of the reel and outputting a pulse signal indicating the detected rotation;
A selection switch for selecting a lure type corresponding to a lure actually used from among lure types corresponding to a plurality of lures usable by anglers,
A lure parameter preset for each of the lure types corresponding to the plurality of lures is stored, data processing means connected to the rotation detection means and the selection switch, from the rotation detection means Based on the output pulse signal and the lure parameter preset for the lure type selected by the selection switch, the reel rotation speed and angular velocity from the beginning to the end of winding of the reel. Data processing means for computing
An RF module connected to the data processing means and enabling mutual communication with mobile devices including smartphones and wearable devices, wherein at least the luer type selected by the selection means and the calculated An RF module capable of transmitting reel rotation speed and angular velocity to the mobile device;
Information processing system including   A watering switch connected to the data processing means and turned on when a lure thrown by an angler has landed; when the watering switch is turned on, the data processing means is selected The information processing system according to claim 1, wherein at least a depth of the lure is calculated based on a lure parameter preset for a lure type.   The lure parameter includes a standard flight distance, a balance speed, a balance / winding amount supplement coefficient, a maximum speed, a dive coefficient at a maximum speed, and a dive coefficient at an intermediate speed. Information processing system.   The rotation detecting means includes a rotating body with a magnet, and a Hall IC that detects a change in magnetism due to the rotation of the rotating body with the magnet and outputs a pulse signal indicating the change in magnetism. 5. The information processing system according to claim 1, wherein the rotation speed and angular velocity of the reel are calculated based on a pulse width and a frequency of a pulse signal. A rotation detection device that detects the rotation of the reel that can be attached to a fishing reel mounted on a fishing rod,
A rotating body with a magnet attached to the opposite side of the handle of the reel so as to rotate in synchronization with the rotation of the handle of the reel, and N pole and S pole alternately so as to surround the rotation axis of the rotating body with magnet A rotating body with a magnet having a plurality of magnetic bodies disposed in
An adjustable hinged guide fixed to the fishing rod and having a Hall IC at the tip thereof, so that the Hall IC faces the magnetic body in order to detect a change in magnetism due to the rotation of the rotating body with the magnet. A hinged guide to be placed on,
And a rotation detection device configured to output a pulse signal indicating the change in magnetism.