A mobile education robot for a poultry farm having at least one laying area. The robot is configured to move the robot on the ground, prompt movement of at least two different types in order to push the birds present on the ground towards the at least one laying area, and to control the movement prompting. The robot includes mechanical elements for levelling and aerating the ground.

A mobile education robot for a poultry farm having at least one laying area. The robot is configured to move the robot on the ground, prompt movement of at least two different types in order to push the birds present on the ground towards the at least one laying area, and to control the movement prompting. The robot includes mechanical elements for levelling and aerating the ground.

A non-lethal animal shepherding active denial system of directed electromagnetic energy having at least one emitter to provide low-energy radiation to deter and shepherd birds and other species away from dangerous areas such as airports or wind turbines. The directed electromagnetic energy may be emitted in a conical shape to target a precise area and to define at least one denial zone and at least one shepherding zone. The shepherding zone may create a pathway to shepherd animals away from the denial zone to allow the birds to safely escape from the denial zone. Objects within a shepherding zone are subjected to dielectric heating, such that the radiation penetration is very shallow, only heating the surface of the skin or fur. By employing a large spatial swath, lower energies (<1 kW), and time-varying intensity, birds and other species can be shepherded away from regions of interest.

A non-lethal animal shepherding active denial system of directed electromagnetic energy having at least one emitter to provide low-energy radiation to deter and shepherd birds and other species away from dangerous areas such as airports or wind turbines. The directed electromagnetic energy may be emitted in a conical shape to target a precise area and to define at least one denial zone and at least one shepherding zone. The shepherding zone may create a pathway to shepherd animals away from the denial zone to allow the birds to safely escape from the denial zone. Objects within a shepherding zone are subjected to dielectric heating, such that the radiation penetration is very shallow, only heating the surface of the skin or fur. By employing a large spatial swath, lower energies (<1 kW), and time-varying intensity, birds and other species can be shepherded away from regions of interest.

A fowl management system is provided. The fowl management system includes a protected surface; a wire mesh at least partially suspended above the protected surface; wherein at least a portion of the wire mesh conducts an electrical current; a fence charger attached to the wire mesh; and a power source attached to the protected surface.

A fowl management system is provided. The fowl management system includes a protected surface; a wire mesh at least partially suspended above the protected surface; wherein at least a portion of the wire mesh conducts an electrical current; a fence charger attached to the wire mesh; and a power source attached to the protected surface.

The vehicle-sider rear-view mirror mounted bird deterrent system delivers an electric shock to scare birds away. The bird deterrent system includes a shock strip, a sensor, a microcontroller, a power source, and a vehicle-side rear-view mirror. The vehicle-side rear-view mirror can be any rear-view mirror of a commercial or passenger vehicle. The shock strip is a thin flexible strip that attaches onto an exterior face of the vehicle-side rear-view mirror. The shock strip is positioned along the side rear-view mirror and covers most of the flat surface which the bird is likely to stand on. The sensor is operatively connected to the shock strip, wherein the sensor transmits a signal to the microcontroller when it detects a bird standing on the shock strip. The microcontroller completes a circuit between the power source and the shock strip, thereby creating a flow of electrical current capable of delivering an electrical shock.

The vehicle-sider rear-view mirror mounted bird deterrent system delivers an electric shock to scare birds away. The bird deterrent system includes a shock strip, a sensor, a microcontroller, a power source, and a vehicle-side rear-view mirror. The vehicle-side rear-view mirror can be any rear-view mirror of a commercial or passenger vehicle. The shock strip is a thin flexible strip that attaches onto an exterior face of the vehicle-side rear-view mirror. The shock strip is positioned along the side rear-view mirror and covers most of the flat surface which the bird is likely to stand on. The sensor is operatively connected to the shock strip, wherein the sensor transmits a signal to the microcontroller when it detects a bird standing on the shock strip. The microcontroller completes a circuit between the power source and the shock strip, thereby creating a flow of electrical current capable of delivering an electrical shock.

Disclosed is a bird repeller for preventing damages caused by dangerous animals, the bird repeller having a three dimensioned raptorial animal model, a cover, a solar panel, a battery, electric transmitted metals, a sound system, a camera, a motion sensor, a remote control system, a remote command, vacuum wheels, damper springs and a damper.

Disclosed is a bird repeller for preventing damages caused by dangerous animals, the bird repeller having a three dimensioned raptorial animal model, a cover, a solar panel, a battery, electric transmitted metals, a sound system, a camera, a motion sensor, a remote control system, a remote command, vacuum wheels, damper springs and a damper.