The object of Quick Draw is to test your reaction time against your opponent's. A third person acts as a referee and begins the duel by pressing S1, which lights LED1. Upon seeing LED1 go on, you try to outdraw your opponent by moving S2 from "Holster" position to "Draw" position before your opponent moves S3 from "Holster" to "Draw" position. Whoever gets there first will light the corresponding LED and will automatically prevent the other LED from lighting, clearly indicating a winner.
The Quick Draw circuit is designed to test and compare the reaction times of two participants in a competitive format. The circuit consists of a referee switch (S1), two player switches (S2 and S3), and two indicator LEDs (LED1 and LED2).
When the referee presses S1, it activates LED1, signaling the start of the duel. This LED serves as a visual cue for both players to react. Each player has a switch that they must press to indicate they have drawn. S2 is designated for Player 1, while S3 is for Player 2. The switches are typically momentary push-button types that return to their original position when released.
The circuit employs a microcontroller or a combination of logic gates to monitor the state of the switches and control the LEDs. When S1 is pressed, the microcontroller initiates a timer and waits for either S2 or S3 to be pressed. The first switch to be activated will trigger the corresponding LED to light up.
To ensure that only one LED lights up, the circuit is designed with a latch mechanism. This mechanism prevents the second LED from lighting once one player has drawn. In practical terms, this can be achieved using a flip-flop circuit or a simple logic gate arrangement that disables the other player's switch once one has been activated.
The design should also incorporate debounce circuitry to avoid false triggering due to mechanical bounce when the switches are pressed. Capacitors and resistors can be used to smooth out the signal from the switches, ensuring reliable operation.
Power supply considerations are also important; the circuit can be powered by batteries or a DC power source, with appropriate voltage regulation to ensure safe operation of the LEDs and microcontroller.
In summary, the Quick Draw circuit combines simple electronic components to create an engaging game of reflexes, providing a clear indication of the winner through visual feedback while ensuring robust performance through careful design considerations.The object of Quick Draw is to test your reaction time against your opponent's. A third person acts as a referee and begins the duel by pressing S1, which lights LED1. Upon seeing LED1 go on, you try to outdraw your opponent by moving S2 from "Holster" position to "Draw" position before your opponent moves S3 from "Holster" to "Draw" position. Who ever gets there first will light the corresponding LED and will automatically prevent the other LED from lighting, clearly indicating a winner.
White LEDs have a rated current at a voltage drop of about 3.3 to 3.4 V. It is ideal to be powered from the battery voltage which is slightly larger. Then there is the best energy used. In this...
The circuit presented is an integrated circuit (IC) controlled emergency light. Its key features include automatic activation of the light during mains failure and a battery charger equipped with overcharge protection. In the absence of mains power, relay RL2...
The LEDs are OSSV53E1A from OptoSupply and they have a 140° angle. This means that the first plane with uniform density can be obtained at a shorter distance from the LED, for a given spacing between LEDs which means...
When the battery voltage is 11.5V or lower, transistor Q1 is activated, causing LED D1 to illuminate. If the battery voltage is between 11.5V and 13.5V, transistor Q2 is activated, resulting in LED D2 lighting up. At a battery...
The article on the RGB LED fader has been one of the most visited articles on this blog. Since its publication, another microcontroller-based RGB LED project has been designed and built, this time controlling the colors from a computer...
4017 LED Knight Rider Running Light Circuit Diagram. In this 4017 Knight Rider circuit, the 555 timer is configured as an oscillator. It can be adjusted to produce a variety of timing intervals.
The 4017 LED Knight Rider circuit utilizes...
We use cookies to enhance your experience, analyze traffic, and serve personalized ads.
By clicking "Accept", you agree to our use of cookies.
Learn more