Description: The electronic fly killer employs high voltage applied to a power line pulse to eliminate flies. Utilize the specified website to attract flies effectively. The electronic circuit operates using an integrated circuit (IC) ICL 555, along with resistors R1, R2, and capacitor C1, which together form an astable oscillator circuit. The output frequency from pin ICL generates a square wave of approximately 30 Hz with a 10% duty cycle. This square wave is coupled through resistor R3 to transistors VT1 and VT2, which drive a step-up transformer (T) to amplify the signal. This amplified output is then connected to a high-voltage transformer with a secondary output of several kilovolts, enabling the device to kill flies. The fly net is constructed using No. 14 wire, with an adjacent wire spacing of about 6 mm. To ensure safety and prevent accidental contact with the high-voltage grid, the fly disinfestation device should be installed at least a few meters above the ground and secured firmly.
The electronic fly killer circuit is designed for effective pest control by generating a high-voltage electric field that kills flies upon contact. The core of the system is the astable multivibrator configuration created by the ICL 555 timer IC, which oscillates at a frequency suitable for generating the desired square wave output. The values of resistors R1 and R2, along with capacitor C1, are crucial for setting the frequency and duty cycle of the output waveform.
The transistors VT1 and VT2 function as switches that allow the low-voltage square wave signal to control a higher voltage, which is necessary for the operation of the step-up transformer. This transformer is designed to increase the voltage to a level sufficient to create a lethal electric shock when flies come into contact with the grid formed by the spaced wires.
The high-voltage transformer is configured to produce a secondary output that can reach several kilovolts. This high voltage is essential for ensuring that the device is effective in killing flies and deterring them from the area. The wire mesh, made from No. 14 gauge wire, is arranged with a spacing of approximately 6 mm to prevent larger insects from escaping while still being effective against flies.
Safety is a critical consideration in the design of this device. To prevent accidental contact with the high-voltage components, the fly killer should be mounted securely at a height of several meters above the ground. This ensures that children and pets cannot inadvertently come into contact with the electrified grid. Additionally, the device should be fixed firmly to prevent it from being knocked over, which could expose the high-voltage components and pose a safety risk. Overall, this electronic fly killer circuit represents an efficient and effective method for controlling fly populations in a variety of settings.Electronic Fly utilizes high voltage applied to the power line voltage pulse OCS killed flies. Use the following web site when the bait to attract flies, fly Fly online for all to be able to kill the flies. Fly electronic circuit as shown, when the base integrated circuit ICl 555 and the resistor Rl, R2 and the capacitor Cl form astable oscillator circuit, from the foot of ICl output frequency of about 30Hz, 10% duty cycle of continuous square wave. The square wave is coupled via a resistor R3 to the transistor VTl, VT2, promote step-up transformer T boosted amplification, so connected to the high-voltage transformer with a secondary IED kV grid in order to achieve the function of killing flies.
Fly net usable No. l4 wire production, the adjacent wire distance of about 6mm. In order to prevent a child inadvertently high-voltage grid, fly disinfestation should be placed in the ground a few meters high, and should be fixed firmly.
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