A fishing tackle management system includes an identification unit for identifying fishing tackle from an image, a determination unit for making determinations regarding prescribed matters regarding to the fishing tackle based on the results of an identification of the identification unit, and a notification unit that controls user notifications of information based on the determination results of the determination unit.

A line-winding device is a line-winding device for fishing capable of being fixed to a fishing rod, the line-winding device including: a spool capable of winding a fishing line around a central axis substantially parallel to an extending direction of the fishing rod; a rotor including a guide part for guiding the fishing line and rotatable around the spool; an operating part for rotationally operating the guide part; and a switching part for switching availability of guiding by the guide part, and including: a support shaft portion that pivotally supports the spool rotatably and is rotatably supported with respect to a device main body; a restoration unit for applying a restoring force between the support shaft portion and the spool; and a detection unit for detecting an angular position of the support shaft portion.

The present disclosure discloses a method of using an unmanned aerial vehicle (UAV) comprising a housing, a processor, a positioning unit, a sonar unit, a launching unit and a fishhook unit in fishing. The method comprises manipulating the UAV to fly to a designated destination determined by the processor according to one of a received wireless communication and a preset program, adjusting the sonar unit to a predetermined height by the positioning unit, determining a coordinate corresponding to a signal detected by the sonar unit as a fishing region when the signal is consistent with a predetermined value, launching bait to the fishing region by the launching unit, releasing a fishhook from the fishhook unit to the fishing region, and manipulating the UAV to hover or return by the processor according to one of a received wireless communication and a preset program.

A fishing system includes a submersible fishing implement for being received in a body of water and configured for capturing one or more fish. An implement driver is configured to drive movement of the submersible fishing implement through the body of water. A data collection system includes one or more sensors for sensing one or more fishing parameters and transmitting a fishing parameter signal representative of the one or more fishing parameters. A controller is operatively connected to the data collection system to receive the fishing parameter signal and to determine based on the fishing parameter signal a selected fishing location. The controller is further configured to transmit a navigation signal to the implement driver operative to control the implement driver to drive movement of the submersible fishing implement toward the selected fishing location.

Example systems and methods are provided herein for controlling a watercraft in response to a bite on a fishing line. A system includes a memory and a processor, and the processor is configured to receive data via user input or one or more sensors to determine whether a fish has bitten on a fishing line. In response to a determination that the fish has bitten on the fishing line, the processor causes the watercraft to operate according to a fish-on operation, which includes at least one of altering a speed of the watercraft, altering a direction of the watercraft, altering a rate of change of the speed of the watercraft, altering a direction of a trolling motor, notifying other watercrafts, or engaging an autopilot to navigate the watercraft according to a preset route. The fish-on operation is designed to aid a user in catching the fish.

An electronic fish finder transducer lifting system includes a mechanical actuating device; a transducer lifting device; an electronic fish finder attachment member, rotatably connected to the transducer lifting device, configured to attach to an electronic fish finder; and a mechanical linkage, connected to the mechanical actuating device and the transducer lifting device, configured to transfer force, applied to the mechanical actuating device, to the transducer lifting device to lift a front portion of the transducer lifting device.

A smart fishing rod includes a rod assembly, a spring assembly, and a magnetic track assembly. In one embodiment, the rod assembly resembles a modular fishing rod that is used in recreational fishing. The spring assembly is mounted towards the handle portion of the rod assembly. Additionally, the spring assembly includes a hooked spring and a nibble spring. The spring assembly is also operatively connected to a plurality of LED lights to notify a user when a fish is caught or nibbles on the line of the rod assembly. When a fish is caught, the magnet track assembly allows for the reel within the sliding reel holder to move back and forth thereby notifying a user that there is a fish on the line.

A fishing caddy system which generally includes a rod holder assembly having at least one rod holder which may be rotatable to different angles to suit the user. There are hooks in the rod holder assembly for receiving the fishing line and thereby preventing the wind from blowing the line around, resulting in faster detection of catches. The rod holder assembly can be mounted to a universal mounting receiver which can be placed on any stationary body. Cup holders and other accessories may also be mounted in proximity to the rod holder assembly using other universal mounting receivers. An accelerometer may also be included which detects vibrations caused by the fishing line against the hook, alerting the user via LEDs or a wireless alert sent to the user's wireless computing device, such as a smart phone.

A reel suitable for bow fishing and the like provides a cowling covering a reel with a wide opening to reduce frictional restraint on high-speed paying out of the line with the flight of the arrow. An optional guide arm may be used to minimize line diversion and hence friction during line payout while absorbing forces when the line is retracted permitting use of a lighter cowling design without loss of strength. A high torque bevel gear transmission and safety lighting is further provided.

A fishing apparatus and a method for controlling the same. The fishing apparatus includes: a fishing rod having a reel and a motor connected with the reel; a brainwave collection unit arranged to collect a brainwave signal from a user of the fishing apparatus; and a control unit arranged to receive the brainwave signal collected by the brainwave collection unit. The apparatus generates a motor control signal according to the brainwave signal and transmits the motor control signal to the motor. The motor drives the reel to rotate under the control of the motor control signal. The fishing apparatus and the method for controlling the same as provided by the present disclosure are easy to use and labor-saving.