A fishing rod for recording fishing data

Abstract

The embodiment of the present invention relates to a fishing rod for recording fishing data, comprising a fishing rod body, a handle, a plurality of wire loops, a deformation sensor, a display screen, a light emitting module, a sound module, a positioning module, a battery and a chip; in the process of catching fish, data signals are collected by the deformation sensor, and the chip outputs the signals, which are converted into light and sound alarm prompts through a set program, thereby greatly reducing the risk of fish escaping, and the type of fish can be identified according to the pulling force of the fish biting the hook, and a user is prompted; in the process of catching fish, the current stress state of the fishing rod is displayed in real time through the screen on the handle, and the color of the light is changed according to the different levels of the real-time stress value and the fishing force set by the program, and the sound also changes from low to high corresponding to the different levels, and the user is reminded of the stress changes and limits of the fishing rod through the light and sound alarms.

Description

Technical Field

[0001] The invention relates to the field of fishing, and in particular to a fishing rod for recording fishing data. Background Art

[0002] Fishing rods currently on the market have the following shortcomings: when used during the day or in dimly lit environments, or when left standing waiting, it is difficult to see the status of the rod after a fish is caught, and there is no obvious prompt, posing a risk of the fish escaping; and after the fish bites the hook, it is difficult for the user to clearly perceive the bending deformation of the rod body during the line-reeling process, and if the pulling force continues to be too large, there is a risk of the rod breaking. Summary of the invention

[0003] The purpose of the present invention is to provide a fishing rod that records fishing data in response to the defects of the prior art. In the process of catching fish, data signals are collected by deformation sensors, and the signals are output by chips and converted into light and sound alarm prompts through a set program, thereby greatly reducing the risk of fish escaping. In addition, the type of fish can be identified according to the pulling force of the fish biting the hook, and the user can be prompted. In the process of collecting fish, the current stress state of the fishing rod is displayed in real time through the screen on the handle, and the color of the light changes according to the real-time stress value and the different levels of fishing force set by the program, and the sound also changes from low to high corresponding to the different levels. The user is dynamically reminded of the stress changes and limits of the fishing rod through the light and sound alarms. In the process of fishing under various environments, the line-collecting and releasing state can be adjusted in time according to this function to help the user avoid the risk of rod breakage and improve the success rate of collecting fish.

[0004] In view of this, an embodiment of the present invention provides a fishing rod for recording fishing data, comprising: a fishing rod body, a handle, a plurality of wire loops, a deformation sensor, a display screen, a light emitting module, a sound module, a positioning module, a battery and a chip;

[0005] The handle is connected to the fishing rod body;

[0006] A plurality of said wire rings are fixed at intervals on the fishing rod body and are used to fix the fishing line;

[0007] The deformation sensor is arranged inside the fishing rod body and is used to detect the curvature of the fishing rod body;

[0008] The battery is arranged inside the handle and is used to supply power to the deformation sensor, the display screen, the light emitting module, the sound emitting module, the positioning module and the chip;

[0009] The positioning module is used to detect the position information of the fishing rod body;

[0010] The chip is electrically connected to the deformation sensor, the display screen, the light emitting module, the sound module, and the positioning module;

[0011] During the process of catching fish, the fishing rod body is deformed under the action of the pulling force of the fish biting the hook, and the deformation sensor detects the deformation of the fishing rod body, generates a first deformation detection signal and sends it to the chip, the chip converts the first deformation detection signal into a first pressure value, and determines whether multiple first pressure values ​​in a continuous time period all exceed a preset pressure value. When exceeded, the positioning information detected by the positioning module is obtained, and the type of fish caught is determined according to the first pressure value. According to the type of fish caught, the corresponding first light emitting parameter information and first sound emitting parameter information are obtained, and sent to the light emitting module and the sound emitting module respectively;

[0012] During the process of catching fish, the fishing rod body is deformed under the action of the pulling force of the fish biting the hook and the pulling force of the user, and the deformation sensor continuously detects the deformation of the fishing rod body, generates a second deformation detection signal and sends it to the chip, and the chip converts the second deformation detection signal into a second pressure value, obtains the corresponding pressure level information according to the second pressure value, obtains the corresponding second light emitting parameter information, second sound emitting parameter information and line reeling and releasing prompt information according to the pressure level information, and sends them to the light emitting module, the sound emitting module and the display screen respectively;

[0013] After the fish are collected, the chip generates a fish catching pressure change curve according to the fish species information and the first pressure value change information during the fish catching process; and generates a fish catching pressure change curve according to the fish species information and the second pressure value change information.

[0014] Preferably, the chip is also used to pre-store a list of caught fish species information, including caught fish species and corresponding pressure value ranges, luminous parameter information and sound parameter information;

[0015] The chip is specifically used to query the fish species information list according to the first pressure value, obtain the corresponding pressure value range, and obtain the corresponding fish species, luminescence parameter information and sound parameter information according to the pressure value range;

[0016] After the fish are collected, the chip is also used to modify the fish species information list according to the actual fish types input by the user.

[0017] Preferably, the chip is also used to pre-store a list of pressure level information of the fishing rod, including pressure level information and corresponding pressure range, luminous parameter information, sound parameter information and line reeling and releasing prompt information.

[0018] Preferably, the chip is also used to generate a distribution map of caught fish species according to the positioning information and caught fish species information after the fish are received.

[0019] Preferably, there are multiple deformation sensors, and the multiple deformation sensors are arranged at equal intervals along the fishing rod body.

[0020] Further preferably, the chip is also used to establish a fracture test model; wherein the model input data is a fracture sample set, including fracture position information, position information of multiple deformation sensors, and pressure values ​​corresponding to the detection results of multiple deformation sensors during the fracture process;

[0021] Based on the fracture position information, pressure values ​​corresponding to multiple deformation sensors within a preset distance range are obtained, and a fracture pressure value variation curve is generated;

[0022] The fracture pressure value variation curves at the same relative position are integrated to obtain the standard fracture pressure value variation curves at different relative positions;

[0023] A correlation relationship between the fracture position information and the standard variation curves of fracture pressure values ​​at different relative positions is established and saved in the fracture test model.

[0024] Preferably, the chip is also used to receive second deformation detection signals detected by multiple deformation sensors within a continuous time period and generate a corresponding pressure change curve; import the position information of multiple deformation sensors and the corresponding pressure change curve into the fracture test model to perform curve matching; when the match is successful, generate an alarm message.

[0025] Preferably, the fishing rod further comprises a data amplification module, which is connected to the deformation sensor and the chip, and is used for amplifying the deformation detection signal detected by the deformation sensor and sending it to the chip.

[0026] Preferably, the fishing rod also includes a switch and a charging interface, which are connected to the chip.

[0027] Preferably, the fishing rod also includes a communication module, which is connected to the chip and is arranged in the handle, including Bluetooth, WiFi or 2.4GHz, and is used to upload the fish catching pressure change curve and the fish collecting pressure change curve to a user terminal.

[0028] A fishing rod for recording fishing data provided by an embodiment of the present invention collects data signals through a deformation sensor during the process of catching fish, outputs signals through a chip, and converts them into light and sound alarm prompts through a set program, thereby greatly reducing the risk of fish escaping, and can also identify the type of fish according to the pulling force of the fish biting the hook, and prompt the user; during the process of collecting the fish, the current stress state of the fishing rod is displayed in real time through the screen on the handle, and the color of the light changes according to the different levels of the real-time stress value and the fishing force set by the program, and the sound also changes from low to high corresponding to the different levels, and the user is dynamically reminded of the stress changes and limits of the fishing rod through the light and sound alarms. During fishing in various environments, the line-collecting and releasing states can be adjusted in time according to this function to help the user avoid the risk of the rod breaking and improve the success rate of collecting the fish. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 A schematic structural diagram of a fishing rod provided by an embodiment of the present invention;

[0030] Figure 2 A schematic structural diagram of a part A of a fishing rod provided by an embodiment of the present invention;

[0031] Figure 3 An exploded schematic diagram of a fishing rod provided by an embodiment of the present invention;

[0032] Figure 4 A schematic diagram of the structure of a display screen and a sound module of a fishing rod provided by an embodiment of the present invention;

[0033] Figure 5 A schematic diagram of a switch and charging interface structure of a fishing rod provided by an embodiment of the present invention;

[0034] Figure 6 A schematic diagram of changes in a part of a fishing rod during the process of catching and collecting a fish provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0035] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments.

[0036] Figure 1 A schematic diagram of the structure of a fishing rod provided by an embodiment of the present invention, Figure 2 A schematic structural diagram of a part A of a fishing rod provided by an embodiment of the present invention, Figure 3 The present invention provides an exploded schematic diagram of a fishing rod. Figure 4 A schematic diagram of the structure of a display screen and a sound module of a fishing rod provided by an embodiment of the present invention, Figure 5 A schematic diagram of a switch and charging interface structure of a fishing rod provided by an embodiment of the present invention, Figure 6 A schematic diagram of the changes of a fishing rod part during the process of catching and collecting a fish provided by an embodiment of the present invention, combined with FIG. Figure 1 and Figure 6 As shown, the structure of the fishing rod specifically includes a fishing rod body 1, a handle 2, multiple wire loops 3, a deformation sensor 4, a display screen 5, a light emitting module 6, a sound module 7, a positioning module (not shown in the figure), a battery 8 and a chip 9. The structure and function of the fishing rod are specifically introduced below.

[0037] The fishing rod body 1 is in the shape of a rod, and a fish hook is arranged at one end of the rod.

[0038] The handle 2 is connected to the fishing rod body 1 , and the handle 2 is specifically fixed to one end of the rod head of the fishing rod body 1 .

[0039] A plurality of wire loops 3 are fixed at intervals on the fishing rod body 1 for fixing the fishing line. Those skilled in the art can set the positions of the wire loops 3 as needed.

[0040] The deformation sensor 4 is arranged inside the fishing rod body 1 and is used to detect the curvature of the fishing rod body 1 .

[0041] The display screen 5 can be specifically arranged on the handle 2 , and is used for displaying the pressure information or prompt information sent by the chip 9 in real time.

[0042] The light-emitting module 6 is arranged on the handle 2 and is used to emit light according to the light-emitting parameters sent by the chip 9. The light-emitting module 6 here includes but is not limited to a light strip, and the light-emitting parameters here include but are not limited to one or more of light-emitting color, light-emitting brightness, and light-emitting frequency.

[0043] The sound module 7 is arranged on the handle 2 and is used to emit light according to the sound parameters sent by the chip 9. The light-emitting module 6 includes but is not limited to a speaker. The sound parameters here include but are not limited to one or more of the sound tone, sound frequency, and sound content.

[0044] The positioning module is arranged in the handle 2, which may be a GPS specifically, and is used to detect the position of the fishing rod.

[0045] The battery 8 is arranged inside the handle 2 and is used to power the deformation sensor 4, the display screen 5, the light emitting module 6, the sound module 7, the positioning module, and the chip 9. Preferably, the fishing rod may also include a switch 10 and a charging interface 11, which are connected to the chip 9. The switch 10 is used to control the power supply of the entire system. The charging interface 11 can realize the charging of the system. The charging interface 11 here includes but is not limited to type-c.

[0046] The chip 9 is arranged inside the handle 2, and is electrically connected to the deformation sensor 4, the display screen 5, the light emitting module 6, the sound module 7, and the positioning module. It is specifically used to process the information detected by the deformation sensor 4, and generate corresponding prompt information according to the processing result and send it to the display screen 5, the light emitting module 6, and the sound module 7. It should be noted that the prompt information here includes but is not limited to one or more of the above-mentioned light emitting parameters, sound parameters, and display information. In a preferred embodiment, in order to facilitate the conversion of the deformation detection signal into a pressure value signal, the fishing rod also includes a data amplification module 91, which is connected to the deformation sensor 4 and the chip 9, and is used to amplify the deformation detection signal detected by the deformation sensor 4 and send it to the chip 9.

[0047] Based on the understanding of the fishing rod structure proposed in this application, its working process is introduced below.

[0048] During the process of catching fish, its working principle is that when the movement amplitude of the fish after being hooked causes the tip of the rod to bend, the data signal is collected through the deformation sensor 4, and the signal is output through the chip 9, which is converted into light and sound alarm prompts through a set program, thereby greatly reducing the risk of fish escaping, and can also identify the type of fish according to the pulling force of the fish biting the hook, and prompt the user; specifically, the fishing rod body 1 is deformed under the action of the pulling force of the fish biting the hook, and the deformation sensor 4 detects the deformation of the fishing rod body 1, generates a first deformation detection signal and sends it to the chip 9, and the chip 9 converts the first deformation detection signal into a first pressure value, and judges whether multiple first pressure values ​​in a continuous time period all exceed the preset pressure value. It should be noted that in order to avoid false prompts when no fish is caught, the present application adopts the pressure value judgment within a continuous time period. Technical personnel in this field can set the specific time range of the continuous time period according to needs, such as 2 seconds, 5 seconds, and in addition, the preset pressure value here refers to the pressure value corresponding to the minimum pulling force after the fish is hooked.

[0049] When multiple first pressure values ​​in a continuous time period all exceed the preset pressure value, it is determined that the fish has taken the bait. At this time, the positioning information detected by the positioning module is obtained, and the type of fish is determined according to the first pressure value. According to the type of fish, the corresponding first light parameter information and first sound parameter information are obtained, and are sent to the light emitting module 6 and the sound module 7 respectively. The light emitting module 6 emits light according to the first light parameter information, and the sound module 7 makes a sound according to the first sound parameter information. Thus, after the fish is caught, a prompt is given through sound and light, which solves the problem of unclear prompt after the fish is caught when used in daytime or nighttime environments.

[0050] It should be understood that the above-mentioned judgment of the type of fish caught and the acquisition of prompt parameters can be specifically achieved by pre-storing a list of fish type information through the chip 9. The list of fish type information specifically includes the relationship between the type of fish caught and the corresponding pressure value range, luminous parameter information and sound parameter information. That is to say, each type of fish corresponds to a different pressure value range, and corresponds to different luminous parameter information and sound parameter information. After the chip 9 obtains the first pressure value, the chip 9 queries the fish type information list according to the first pressure value, obtains the corresponding pressure value range, and obtains the corresponding fish type, luminous parameter information and sound parameter information according to the pressure value range. Therefore, different types of fish correspond to different sound and light prompt information, so that the user can know the type of fish caught according to the sound and light prompt information. After the fish are collected, the user can also confirm the type of fish caught. The chip 9 corrects the fish type information list according to the actual fish type entered by the user. Optionally, the chip 9 sends the fish type to the display screen 5 for display, thereby more intuitively prompting the user of the fish type.

[0051] In summary, under normal circumstances, users may place the fishing rod and go about doing other things. At this time, if a fish is hooked, the user may ignore the movement of the fishing rod, causing the fish to escape. Now, the vibration after the fish is caught is captured by the sound and light alarm device of the fishing rod, and the sound and light information prompts are triggered, allowing the user to quickly find out the fish information and whether it is the user's target fish species, and proceed to the next step. When fishing activities are carried out in a dark ambient light environment, the sound and light alarm function is easier to be found, ensuring the universal applicability of the fishing rod function in various environments.

[0052] The built-in deformation sensor 4 is used to monitor the bending change of the tip of the fishing rod caused by the pulling force after the fish bites the hook, and the deformation sensor 4 is used to convert the bending change of the tip of the fishing rod into the real-time bite weight through the program setting in the chip 9. When the two forces exceed the upper limit of the tip of the fishing rod, a light and sound alarm prompt is given (to be distinguished from the sound and light alarm prompt of fish catching), and the light can have color changes according to different force levels, and the sound can also change from low to high, so that the user can switch between the line-releasing (fish-playing state) and the line-reeling state appropriately, and the risk of breaking the fishing rod can be avoided while catching the fish. Specifically, the fishing rod body 1 is deformed under the action of the pulling force of the fish bite and the pulling force of the user, and the deformation sensor 4 continuously monitors the bending change of the tip of the fishing rod. The deformation of the main body 1 is detected, and a second deformation detection signal is generated and sent to the chip 9. The chip 9 converts the second deformation detection signal into a second pressure value, and obtains the corresponding pressure level information according to the second pressure value. According to the pressure level information, the corresponding second light emitting parameter information, second sound emitting parameter information and line reeling and releasing prompt information are obtained, and are sent to the light emitting module 6, the sound emitting module 7 and the display screen 5 respectively. The light emitting module 6 emits light according to the second light emitting parameter information, the sound emitting module 7 emits sound according to the second sound emitting parameter information, and the display screen 5 displays the line reeling and releasing prompt information. The line reeling and releasing prompt information here can also include the second pressure value collected in real time, so that the user can understand the stress condition of the fishing rod more intuitively, and switch between the line releasing and reeling states in time to avoid the breakage of the fishing rod.

[0053] It should be understood that the acquisition of the above-mentioned pressure level information and prompt information can be achieved through a pre-stored fishing rod pressure level information list, in which the stored pressure level information list includes pressure level information and corresponding pressure range, luminous parameter information, sound parameter information, and line reeling and releasing prompt information. After the chip 9 obtains the second pressure value, the chip 9 queries the pressure level information list according to the second pressure value to obtain the corresponding pressure range, thereby obtaining the pressure level corresponding to the pressure range, and then obtains the corresponding line reeling and releasing prompt information and sound and light parameters based on the pressure level. It should be noted that the pressure range and pressure level are set based on the maximum pressure that the fishing rod can withstand. If the maximum pressure is exceeded, it will break. Technical personnel in this field can set the corresponding relationship in the pressure level information list as needed. For example, when the pressure level corresponding to the current pressure is high, an sound and light alarm is performed, and sound and light alarms with different sound and light parameters can be performed according to different levels. When the pressure level corresponding to the current pressure is low, the sound and light parameters are 0, and no alarm is performed.

[0054] In summary, the screen on the handle 2 displays the current stress state of the fishing rod in real time, and the color of the light changes according to the real-time stress value and the different levels of fishing force set by the program. The sound also changes from low to high according to the different levels. The light and sound alarms dynamically remind the user of the stress changes and limits of the fishing rod. In the process of fishing in various environments, this function can be used to timely adjust the line reeling and releasing state to help users avoid the risk of broken rods and increase the success rate of fighting fish.

[0055] After the fish are collected, the chip 9 generates a fish pressure change curve according to the fish species information and the first pressure value change information during the fish catching process, and generates a fish collection pressure change curve according to the fish species information and the second pressure value change information. Preferably, the fishing rod of the present application also includes a communication module, which is connected to the chip 9 and is arranged in the handle 2, including but not limited to Bluetooth, WiFi or 2.4GHz, for uploading the fish pressure change curve and the fish collection pressure change curve to the user terminal for the user to view, and help the user increase experience through data analysis. In addition, after the fish are collected, the chip 9 can also generate a fish species distribution map according to the positioning information and the fish species information, so that the user can understand the location of different types of fish activities.

[0056] It should be noted that the above-mentioned first deformation detection signal, first pressure value, first sound parameter information, and first light parameter information all refer to signals or information generated in the process of catching fish, and are marked as first for the convenience of description and distinction; the above-mentioned second deformation detection signal, second pressure value, second sound parameter information, and second light parameter information all refer to signals or information generated in the process of collecting fish, and are marked as second for the convenience of description and distinction.

[0057] In some embodiments, in order to more accurately prevent the fishing rod from breaking, the number of the above-mentioned deformation sensors 4 is multiple, that is, two or more. The multiple deformation sensors 4 are preferably arranged at equal intervals along the fishing rod body 1, so as to perform multi-point detection on the fishing rod. The detection method and prompt method are the same as those of the above-mentioned single sensor, and will not be repeated here.

[0058] The above-mentioned embodiment realizes the fracture alarm based on the judgment of the single-point real-time detection pressure value. In the preferred embodiment, in order to realize the fracture alarm more accurately, the judgment can be made through the pressure value change curve. Specifically, when there are multiple deformation sensors 4, the fracture of the fishing rod can be predicted through the fracture test model, thereby generating alarm information in advance. The fracture test model can be a model established by simulation software, or a model established by real fracture experiments, or a model established based on simulation software and the model can be corrected by real experimental data. It can be understood that the chip 9 is also used to establish a fracture test model; wherein the model input data is a fracture sample set, the fracture sample set includes fracture position information, position information of multiple deformation sensors 4 and pressure values ​​corresponding to the detection results of multiple deformation sensors 4 during the fracture process, and the method for obtaining this pressure value is the same as the method for obtaining the above-mentioned single sensor, which will not be repeated here; based on the fracture position information, the pressure values ​​corresponding to the multiple deformation sensors 4 within a preset distance range are obtained, and a fracture pressure value change curve is generated according to the set time range; the fracture pressure value change curves at the same relative position are integrated to obtain standard fracture pressure value change curves at different relative positions; the correlation between the fracture position information and the standard fracture pressure value change curves at different relative positions is established, and saved in the fracture test model. In a specific example, the fracture site is point M, and point M is taken as the center line. The deformation sensors 4 within a preset distance of 40 cm on both sides of point M are obtained, among which the two within 10-20 cm on both sides are respectively recorded as sensors A and B, and the two within 20-40 cm on both sides are respectively recorded as sensors C and D. Based on multiple groups of data, the sensor data in the same relative position range are integrated to obtain four groups of standard change curves of fracture pressure values ​​corresponding to A, B, C, and D. Then, based on point M, the correlation relationship with the standard change curves of fracture pressure values ​​at the four relative positions A, B, C, and D is established and saved, thereby obtaining the pressure value changes at multiple positions before fracture.

[0059] After the fracture test model is established, it can be used for fracture alarm of different fishing rods. Specifically, the chip 9 also receives the second deformation detection signal detected by multiple deformation sensors 4 in a continuous time period, and generates a corresponding pressure change curve; the position information of multiple deformation sensors 4 and the corresponding pressure change curve are imported into the fracture test model for curve matching; when the match is successful, an alarm message is generated. In a specific example, two deformation sensors 4 are provided on the fishing rod. If the relative position of the two deformation sensors 4 is 40 cm, the standard change curve of the fracture pressure value corresponding to A and D is matched. If the relative position of the two deformation sensors 4 is 30 cm, the standard change curve of the fracture pressure value corresponding to A and C can be selected for matching. When the similarity is greater than 90%, it is considered that the match is successful, and an alarm message is generated. Compared with the judgment of a single point pressure value, the pressure curve can predict the fracture in advance. Of course, in a more preferred embodiment, the fracture prediction can be carried out by combining the single point pressure value and the pressure curve, so that the fracture can be predicted and alarmed more accurately.

[0060] A fishing rod for recording fishing data provided by an embodiment of the present invention collects data signals through a deformation sensor during the process of catching fish, outputs signals through a chip, and converts them into light and sound alarm prompts through a set program, thereby greatly reducing the risk of fish escaping, and can also identify the type of fish according to the pulling force of the fish biting the hook, and prompt the user; during the process of collecting the fish, the current stress state of the fishing rod is displayed in real time through the screen on the handle, and the color of the light changes according to the different levels of the real-time stress value and the fishing force set by the program, and the sound also changes from low to high corresponding to the different levels, and the user is dynamically reminded of the stress changes and limits of the fishing rod through the light and sound alarms. During fishing in various environments, the line-collecting and releasing states can be adjusted in time according to this function to help the user avoid the risk of the rod breaking and improve the success rate of collecting the fish.

[0061] In the present invention, the term "plurality" refers to two or more than two, unless otherwise clearly defined. The terms "installed", "connected", "connected", "fixed" and the like should be understood in a broad sense. For example, "connected" can be a fixed connection, a detachable connection, or an integral connection; "connected" can be a direct connection or an indirect connection through an intermediate medium. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0062] In the description of the present invention, it is necessary to understand that the directions or positional relationships indicated by terms such as “upper”, “lower”, “left”, “right”, “front” and “back” are based on the directions or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or unit referred to must have a specific direction, be constructed and operated in a specific orientation, and therefore, cannot be understood as a limitation on the present invention.

[0063] In the descriptions in this specification, the terms "a specific embodiment", "some embodiments", "an embodiment", etc. mean that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic expressions of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0064] The specific implementation methods described above further illustrate the objectives, technical solutions and beneficial effects of the present invention in detail. It should be understood that the above description is only a specific implementation method of the present invention and is not intended to limit the scope of protection of the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A fishing rod for recording fishing data, characterized in that: The fishing rod comprises a fishing rod body, a handle, a plurality of wire rings, a deformation sensor, a display screen, a light emitting module, a sound module, a positioning module, a battery and a chip; The handle is connected to the fishing rod body; A plurality of said wire rings are fixed at intervals on the fishing rod body and are used to fix the fishing line; The deformation sensor is arranged inside the fishing rod body and is used to detect the curvature of the fishing rod body; The battery is arranged inside the handle and is used to supply power to the deformation sensor, the display screen, the light emitting module, the sound emitting module, the positioning module and the chip; The positioning module is used to detect the position information of the fishing rod body; The chip is electrically connected to the deformation sensor, the display screen, the light emitting module, the sound module, and the positioning module; During the process of catching fish, the fishing rod body is deformed under the action of the pulling force of the fish biting the hook, and the deformation sensor detects the deformation of the fishing rod body, generates a first deformation detection signal and sends it to the chip, the chip converts the first deformation detection signal into a first pressure value, and determines whether multiple first pressure values ​​in a continuous time period all exceed a preset pressure value. When exceeded, the positioning information detected by the positioning module is obtained, and the type of fish caught is determined according to the first pressure value. According to the type of fish caught, the corresponding first light emitting parameter information and first sound emitting parameter information are obtained, and sent to the light emitting module and the sound emitting module respectively; During the process of catching fish, the fishing rod body is deformed under the action of the pulling force of the fish biting the hook and the pulling force of the user, and the deformation sensor continuously detects the deformation of the fishing rod body, generates a second deformation detection signal and sends it to the chip, and the chip converts the second deformation detection signal into a second pressure value, obtains the corresponding pressure level information according to the second pressure value, obtains the corresponding second light emitting parameter information, second sound emitting parameter information and line reeling and releasing prompt information according to the pressure level information, and sends them to the light emitting module, the sound emitting module and the display screen respectively; After the fish are collected, the chip generates a fish catching pressure change curve according to the fish species information and the first pressure value change information during the fish catching process; and generates a fish catching pressure change curve according to the fish species information and the second pressure value change information; The chip is also used to pre-store a list of fish species information, including the fish species and the corresponding pressure value range, luminous parameter information and sound parameter information; the chip is specifically used to query the fish species information list according to the first pressure value, obtain the corresponding pressure value range, and obtain the corresponding fish species, luminous parameter information and sound parameter information according to the pressure value range; after the fish are collected, the chip is also used to correct the fish species information list according to the actual fish type input by the user.

2. The fishing rod for recording fishing data according to claim 1, characterized in that: The chip is also used to pre-store a list of pressure level information of the fishing rod, including pressure level information and corresponding pressure range, luminous parameter information, sound parameter information and line reeling and releasing prompt information.

3. The fishing rod for recording fishing data according to claim 1, characterized in that: The chip is also used to generate a distribution map of caught fish species according to positioning information and caught fish species information after the fish are received.

4. The fishing rod for recording fishing data according to claim 1, characterized in that: There are multiple deformation sensors, and the multiple deformation sensors are arranged at equal intervals along the fishing rod body.

5. The fishing rod for recording fishing data according to claim 4, characterized in that: The chip is also used to establish a fracture test model; wherein the model input data is a fracture sample set, including fracture position information, position information of multiple deformation sensors, and pressure values ​​corresponding to the detection results of multiple deformation sensors during the fracture process; Based on the fracture position information, pressure values ​​corresponding to multiple deformation sensors within a preset distance range are obtained, and a fracture pressure value variation curve is generated; The fracture pressure value variation curves at the same relative position are integrated to obtain the standard fracture pressure value variation curves at different relative positions; A correlation relationship between the fracture position information and the standard variation curves of fracture pressure values ​​at different relative positions is established and saved in the fracture test model.

6. The fishing rod for recording fishing data according to claim 5, characterized in that: The chip is also used to receive second deformation detection signals detected by multiple deformation sensors within a continuous time period and generate a corresponding pressure change curve; import the position information of multiple deformation sensors and the corresponding pressure change curve into the fracture test model to perform curve matching; when the match is successful, generate an alarm message.

7. The fishing rod for recording fishing data according to claim 1, characterized in that: The fishing rod also includes a data amplification module, which is connected to the deformation sensor and the chip and is used to amplify the deformation detection signal detected by the deformation sensor and send it to the chip.

8. The fishing rod for recording fishing data according to claim 1, characterized in that: The fishing rod also includes a switch and a charging interface, which are connected to the chip.

9. The fishing rod for recording fishing data according to claim 1, characterized in that: The fishing rod also includes a communication module, which is connected to the chip and is arranged in the handle, including Bluetooth and WiFi, and is used to upload the fish catching pressure change curve and the fish collecting pressure change curve to a user terminal.

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