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Logic "1" (HIGH) Clock Pulse trailing-edge J FF1 CLK K Ch al J FF2 CLK K at Cir FF3 CLK K Q at J FF4 CLK Q K al Cir 74LS00 74LS73 Clear

Logic "1" (HIGH) Clock Pulse trailing-edge J FF1 CLK K Ch al J FF2 CLK K at Cir FF3 CLK K Q at J FF4 CLK Q K al Cir 74LS00 74LS73 Clear

Introductory Circuit Analysis (13th Edition)
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
Section: Chapter Questions
Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...
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write the name of counter type on the side. this counter what numbers count and whats the mod(....) level(NEED A NEAT HANDWRITTEN SOLUTION ONLY OTHERWISE DOWNVOTE)

This diagram depicts a synchronous 4-bit binary counter using JK flip-flops (FF) and NAND gates. The circuits and their components work together to count binary sequences. Below is a detailed description articulated to fit on an educational website: --- ### Synchronous 4-bit Binary Counter **Components:** 1. **JK Flip-Flops:** - **FF1, FF2, FF3, FF4:** These are the JK flip-flops used in the counter configuration. Each flip-flop has J, K, CLK (clock), Q, and !Q (not Q) terminals. 2. **Logic "1" (HIGH):** This logical high signal initializes the JK inputs. 3. **Clock Pulse (Trailing-edge):** The counter increments on the trailing edge of the clock pulse. 4. **74LS00:** A commercially available NAND gate IC, utilized in the counter design. 5. **74LS73:** A series of JK flip-flops used in the design. **Diagram Description:** 1. **Clock Pulse Input:** - The clock pulse input initiates the counting process. The counter is edge-triggered, responding on the trailing edge of the clock pulse. 2. **Flip-Flops Wiring:** - **FF1:** The first flip-flop receives the initial clock pulse directly and is configured with its J and K inputs tied to logic HIGH. - **FF2:** The second flip-flop’s clock input (CLK) is connected to the output Q of FF1, and similarly, its J and K inputs are tied to logic HIGH. - **FF3:** The third flip-flop’s clock input is connected to the output Q of FF2, with its J and K inputs tied to logic HIGH. - **FF4:** The fourth flip-flop’s clock input is connected to the output Q of FF3, with its J and K inputs tied to logic HIGH. 3. **Output Configuration:** - The outputs Q of each flip-flop are the binary count outputs. Q pin of FF1 represents the least significant bit (LSB), and Q pin of FF4 represents the most significant bit (MSB). 4. **NAND Gate Implementation (74LS00):** - A NAND gate is used to clear the counter. The clear function is activated to reset the counter, bringing all flip-flops to a logic low state when required. 5. **Clear
Transcribed Image Text:This diagram depicts a synchronous 4-bit binary counter using JK flip-flops (FF) and NAND gates. The circuits and their components work together to count binary sequences. Below is a detailed description articulated to fit on an educational website: --- ### Synchronous 4-bit Binary Counter **Components:** 1. **JK Flip-Flops:** - **FF1, FF2, FF3, FF4:** These are the JK flip-flops used in the counter configuration. Each flip-flop has J, K, CLK (clock), Q, and !Q (not Q) terminals. 2. **Logic "1" (HIGH):** This logical high signal initializes the JK inputs. 3. **Clock Pulse (Trailing-edge):** The counter increments on the trailing edge of the clock pulse. 4. **74LS00:** A commercially available NAND gate IC, utilized in the counter design. 5. **74LS73:** A series of JK flip-flops used in the design. **Diagram Description:** 1. **Clock Pulse Input:** - The clock pulse input initiates the counting process. The counter is edge-triggered, responding on the trailing edge of the clock pulse. 2. **Flip-Flops Wiring:** - **FF1:** The first flip-flop receives the initial clock pulse directly and is configured with its J and K inputs tied to logic HIGH. - **FF2:** The second flip-flop’s clock input (CLK) is connected to the output Q of FF1, and similarly, its J and K inputs are tied to logic HIGH. - **FF3:** The third flip-flop’s clock input is connected to the output Q of FF2, with its J and K inputs tied to logic HIGH. - **FF4:** The fourth flip-flop’s clock input is connected to the output Q of FF3, with its J and K inputs tied to logic HIGH. 3. **Output Configuration:** - The outputs Q of each flip-flop are the binary count outputs. Q pin of FF1 represents the least significant bit (LSB), and Q pin of FF4 represents the most significant bit (MSB). 4. **NAND Gate Implementation (74LS00):** - A NAND gate is used to clear the counter. The clear function is activated to reset the counter, bringing all flip-flops to a logic low state when required. 5. **Clear
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