Linkage system of intelligent buoy and wrist strap

Abstract

The present invention relates to a linkage system of an intelligent buoy and a wrist strap, and more particularly, to an intelligent buoy having a structure in which a battery is arranged at a buoy neck and the weight of a buoy head is dispersed in order to enable a lying buoy to immediately stand upright, and to a wrist strap worn on a body part such as a wrist and the like. A linkage system of a ceramic wrist strap of a rapid fourth-generation vibration element with the reaction speed within 15 ms is adopted.

Description

Technical Field

[0001] This invention relates to a linkage system between an intelligent float and a wristband, and more specifically, to an intelligent float with a battery at the float neck to immediately straighten a lying float and distribute the weight of the float head, and a wristband worn on the wrist or other body parts, employing a ceramic fourth-generation vibrating element with a reaction speed of less than 15ms. Background Technology

[0002] Typically, a float consists of a float head, a float body, and float legs. Here, the part connecting the float head and the float body is called the float neck.

[0003] The existing patent registration No. 10-2133508 describes the integration of an LED, a six-axis sensor, an RF chip, an LED driver IC, a battery, and a housing into a module for attachment to the end of the drift head.

[0004] Thus, the sensitivity of a fishing float is measured by net buoyancy. Since the LED, six-axis sensor, RF chip, LED driver IC, battery and housing are made into a module and installed at the end of the float head, in addition to the components that have the functions of a typical smart float, the weight of the housing and other components is increased, resulting in a decrease in net buoyancy and sensitivity.

[0005] Here, the formula for calculating net buoyancy is as follows.

[0006] Net buoyancy = buoyancy ÷ self-weight × 100.

[0007] Here, buoyancy refers to the buoyancy generated by the float, and self-weight refers to the weight of the float.

[0008] In existing technology, the movement of the float is transmitted wirelessly via a smartphone signal. This signal needs to be converted into vibration and quickly transmitted to the human body (a part of the body). Due to the characteristics of the vibration motor, there is a delay in transmission, which causes many inconveniences. That is, one should aim to set the hook at the moment the fish bites, but due to the delay in vibration, the opportunity to set the hook is often missed.

[0009] Furthermore, smartphones need to be held in the hand or in a pocket at all times while fishing, which adds to the inconvenience. If it's in a pocket, the vibration signal isn't felt very well, and if it's in the hand, it's very inconvenient to operate.

[0010] Furthermore, in patent registration No. 10-2133508, the smart float only sends a signal to the smartphone when it moves for at least 1 second and / or 30mm in any chosen direction (up, down, left, right). At each of these times, the smartphone generates corresponding lights, sounds, and vibrations, which the user uses to set the hook for fishing. However, the smart float also sends a signal to the smartphone when it moves due to external factors such as wind or waves, which could lead to situations where the signal is distrusted and ignored.

[0011] Especially when fishing at night, vibration is a more useful means of detecting float movement than the light or sound of a smartphone.

[0012] Regarding existing smart floats, in addition to No. 10-2133508, there have been multiple applications and public announcements.

[0013] The existing smart floats described above use a module with smart float functionality fixed to the end of the float head. The range of the float's up, down, left, and right movements is fixed, so there is no smart float that can program the float's movement in real time. Summary of the Invention

[0014] Technical issues This invention addresses the problems described above by providing a linkage system between a smart float and a wristband. Electronic components are dispersed and concentrated at the float head end to improve the float's resilience. The system simplifies the modules attached to the float head end, reducing weight and increasing net buoyancy. It allows programming of the float's movement according to fish species, improving usability. For better vibration sensing, signals are received directly at the wristband worn on the body, enhancing detection capabilities. To ensure the smart float can convert received signals into vibrations within 15ms, a ceramic element with reduced reaction time is used.

[0015] Technical solution To address this technical challenge, the present invention provides a system linking an intelligent float and a wristband. The system, involving an intelligent float 1000 and a wristband, comprises, from top to bottom, a float head 500, a float neck 600, a float body 700, and float legs 800. A float control unit 100 is located at the float head end 400 of the float head 500 and is used to control float movement detection, LED driving, and wireless communication. A battery 300 is built into the float neck 600 and supplies power to the float control unit 100. At least one LED 200 is built into the float head 500. The system also includes a wristband control unit 900 that communicates wirelessly with the float control unit 100.

[0016] Furthermore, the present invention is characterized in that the float control unit 100 includes: a float wireless communication module 110 for wirelessly communicating the movement of the float; a motion sensor module 120 for detecting the movement of the float; and an LED driving module 130 for driving an LED. The float wireless communication module 110 has a unique identification number for transmitting the measured value of the motion sensor module 120 and the fish species standard value of the control unit 900.

[0017] Furthermore, the present invention is characterized in that, in order to allow for the replacement of the battery 300, the float neck 600 is separated from the float body 700.

[0018] Furthermore, the present invention is characterized in that the control unit 900 includes: a float movement setting module 940 for setting a standard value for float movement for different fish species; a wireless communication module 910 for communicating wirelessly with the float; a vibration drive module 920 for converting the movement signal received from the float into vibration; and a vibration element 930 for vibrating in response to the output of the vibration drive module.

[0019] Furthermore, the present invention is characterized in that the LED driving module 130 is capable of controlling the LED brightness adjustment, color adjustment, and on / off state based on information received from the float wireless communication module 110.

[0020] Furthermore, the present invention is characterized in that the float movement setting module 940 sets the standard value of the fish species based on the movement of the float up, down, forward, backward, left and right.

[0021] Furthermore, the present invention is characterized in that the vibration element 930 vibrates according to the signal received from the vibration drive module 920, and is made of ceramic material, so that the response time is within 15ms.

[0022] Beneficial effects According to the present invention as described above, in the float, the battery is positioned at the neck of the float, the weight is distributed, and it can stand upright more quickly, thus achieving the effect of more rapid fishing preparation.

[0023] Furthermore, in this invention, a signal is generated by comparing the standard value of the float movement set according to the fish species with the measured value of the float, thereby improving the reliability of the float movement, i.e., the fish signal.

[0024] Furthermore, in this invention, the movement of the float is directly transmitted to the wristband via vibration, allowing for a direct and intuitive feeling on the body. The ceramic vibration element generates vibration within a 15ms response time, achieving the optimal timing for lifting the rod.

[0025] Furthermore, in this invention, the float has a unique identification number, which enables the precise selection of the float to be lifted from multiple settings. Attached Figure Description

[0026] Figure 1 This is a perspective view of the linkage system between the intelligent float and the wristband according to the present invention.

[0027] Figure 2 This is a detailed structural diagram of the float control unit according to the present invention.

[0028] Figure 3 This is a detailed structural diagram of the relationship between the battery and the float control unit according to the present invention.

[0029] Figure 4 This is a detailed structural diagram of the wristband control section according to the present invention.

[0030] Figure 5 This is a detailed structural diagram of a vibration drive module according to the present invention.

[0031] Figure 6 This is a signal amplification relationship diagram of the vibration drive module according to the present invention.

[0032] Figure 7 This is a diagram illustrating the vibration principle of the vibration element according to the present invention.

[0033] Figure 8 This is a comparison diagram of the smart float according to the present invention and existing smart floats. Detailed Implementation

[0034] The specific features and advantages of the present invention will become clearer from the following detailed description taken in conjunction with the accompanying drawings. Before proceeding, it should be noted that detailed descriptions of well-known functions and structures related to the present invention have been omitted when it is determined that this might unnecessarily obscure the essence of the invention.

[0035] The present invention will now be described in detail with reference to the accompanying drawings.

[0036] For the linkage system of the smart float and wristband according to the present invention, refer to Figures 1 to 1 0 is explained as follows.

[0037] Figure 1 This is a conceptual overall structural diagram illustrating an embodiment of the linkage system between the smart float and the wristband according to the present invention. Figure 2 This is a detailed structural diagram of the float control unit according to the present invention. Figure 3 It is a detailed structural diagram involving the connection between the battery and the float control unit. Figure 4 This invention relates to a detailed structural diagram of a control unit. Figure 5This is a detailed structural diagram involving the vibration drive module.

[0038] The intelligent float 1000 of the present invention includes a float head end 400, a float head 500, a float neck 600, a float body 700, a float leg 800, a float control unit 100, an LED 200, a battery 300, and a battery cable 310.

[0039] According to the present invention, the float control unit 100 transmits the measured value detected by the motion sensor module 120 to the belt control unit 900 via the float wireless communication module 110, and transmits the standard value set according to the fish species from the belt control unit 900 to the motion sensor module 120.

[0040] In addition, the control unit 900 is responsible for sending the standard value set in the float movement setting module 940 to the float control unit 100 via the wireless communication module 910, sending the information about float movement received from the float control unit 100 to the vibration drive module 920, and sending the amplified signal in the vibration drive module 920 to the vibration element 930.

[0041] Here, the float wireless communication module 110 communicates with the belt control unit 900 by sending the measured values ​​received by the motion sensor module 120 to the belt control unit 900 and by receiving standard value data about the movement of the float from the belt control unit 900.

[0042] Here, the motion sensor module 120 stores the measured values ​​received by the float wireless communication module 110 in its internal memory, and compares them with the standard values ​​when the float moves. If the values ​​are the same or greater, the module sends a signal to the float wireless communication module 110.

[0043] Here, the LED driver module 130 drives the LED 200 according to a predetermined pattern.

[0044] In addition, LED 200 consists of at least one component and is located in the middle part of the float head 500. It adjusts the light, color, and on / off state according to the signal, controls RGB, can display all colors, and can achieve the effect of improving nighttime visibility.

[0045] Here, the power required for the float control unit 100 is supplied by a battery 300 located at the float neck 600, and the battery cable 310 is connected through the internal space of the float head 500. The battery 300 located at the float neck, the float control unit 100 located at the end 400 of the float head, and at least one LED 200 located in the middle portion of the float head 500 distribute weight to facilitate the float standing upright and allow for quick preparation for fishing. Furthermore, as... Figure 8As shown, by evenly distributing the float control unit 100, LED 200, and battery 300 at the float head 500 and float neck 600 and integrating them, not only can the float stand upright be improved, but the net buoyancy can also be increased, thereby improving the visibility of the float. The float neck 600 has a structure that can be separated and fastened by screws and other components, such as the float body 700, so that the battery 300 can be easily replaced.

[0046] In addition, the wireless communication module 910 serves to communicate with the float control unit 100, such as sending the standard value of float movement for fish species from the float movement setting module 940 to the float control unit 100, and sending the measured value received from the movement sensor module 920 from the float control unit 100 to the vibration drive module 920.

[0047] Here, the vibration drive module 920 receives the measured values ​​of the float's movement from the wireless communication module 910, generates a signal through the signal generator 921, and amplifies the voltage generated by the high voltage generator 923 in the analog amplifier 922 before sending it to the vibration element 930.

[0048] Here, the vibration element 930 receives a high-voltage signal from the vibration drive module 920 to operate. It uses ceramics such as PZT as the main material and operates with a response time of less than 15ms, which can achieve the effect of optimizing the timing of lifting the rod.

[0049] In addition, such as Figure 6 As shown, in the vibration element 930, the signal generated by the signal generator 921 is amplified in the analog amplifier 922 to the voltage generated by the high voltage generator 923.

[0050] Amplified signal Figure 7 As shown, when applied to a piezoelectric element, it will compress and stretch according to the voltage, thereby generating vibration.

[0051] Unlike other vibrating elements, ceramic (piezoelectric) vibrating elements change their vibration with the magnitude of the voltage, thus producing a variety of subtle vibrations. In other words, because the amount of vibration is adjustable, different effects can be achieved depending on the fish species.

[0052] Here, the float movement setting module 940 can be directly programmed and set according to the fish species to prevent erroneous operation of the float caused by wind or wave movement.

[0053] The foregoing description and illustrations have provided preferred embodiments illustrating the technical concept of the present invention. However, the present invention is not limited to the configuration and operation illustrated and described above, and without departing from the scope of the technical concept, numerous changes and modifications can be made to the present invention. Those skilled in the art should fully understand this. Therefore, all such appropriate changes, modifications, and equivalents should also be considered to fall within the scope of the present invention.

Claims

1. A linkage system between an intelligent float and a wristband, characterized in that, As a linkage system between the smart float (1000) and the wristband, The intelligent float (1000) consists of the following components from top to bottom: float head (500), float neck (600), float body (700), and float legs (800). A float control unit (100) is disposed at the float head end (400) of the float head (500) and is used to control the float's movement detection, LED driving, and wireless communication. The battery (300) is built into the float neck (600) and supplies power to the float control unit (100). There is at least one LED (200) built into the float head (500). It also includes a band control unit (900) that communicates wirelessly with the float control unit (100). The float control unit (100) includes: A float wireless communication module (110) is used to wirelessly communicate the movement of the float. A motion sensor module (120) for detecting the movement of the float; and LED driver module (130), which is used to drive LEDs, The float wireless communication module (110) has a unique identification number for transmitting the measured values ​​from the motion sensor module (120) and the fish species standard values ​​from the control unit (900). The belt control unit (900) includes: Float movement setting module (940), which is used to set the standard value of float movement for different fish species; It is equipped with a wireless communication module (910), which is responsible for communicating wirelessly with the float; Vibration drive module (920), which converts the signals received from the float regarding movement into vibrations; and The vibrating element (930) vibrates in response to the output of the vibration drive module. The vibration element (930) vibrates according to the signal received from the vibration drive module (920), and is made of ceramic material, so that the response time is within 15ms.

2. The linkage system of the intelligent float and wristband according to claim 1, characterized in that, In order to allow for battery replacement (300), the float neck (600) is separated from the float body (700).

3. The linkage system between the intelligent float and the wristband according to claim 1, characterized in that, The LED driver module (130) can control the LED brightness adjustment, color adjustment, and on / off state based on the information received from the float wireless communication module (110).

4. The linkage system of the intelligent float and wristband according to claim 1, characterized in that, The float movement setting module (940) sets the fish species standard value according to the movement up, down, forward, backward, left and right.

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