The CD4013BM96 is a Dual D-type flip-flop IC from Texas Instruments, part of the CD4000 series of CMOS logic devices. It typically comes in a 14-pin Dual In-Line Package (DIP-14), though other packaging forms like SOIC-14 (Small Outline Integrated Circuit) and TSSOP-14 are also common.
Below, I will provide a detailed explanation of the pin functions for the CD4013BM96 and an in-depth FAQ section addressing common questions related to this specific component. This will include a complete pinout, detailed pin functions, and a FAQ section, as requested.
Pinout and Pin Function Table
Pin No. Pin Name Pin Type Description 1 Q1 Output The output of the first flip-flop (Q output). It is the complement of the Q1* pin (pin 2). 2 Q1* Output The inverted output of the first flip-flop (Q* output). It is the complement of the Q1 pin (pin 1). 3 D1 Input The data input for the first flip-flop. This input determines the state of the flip-flop on the next clock pulse. 4 CLK1 Input The clock input for the first flip-flop. The state of the flip-flop will change on the rising edge of this signal. 5 CLR1 Input The asynchronous reset input for the first flip-flop. When this is low, it resets the flip-flop, making Q1 low and Q1* high. 6 SET1 Input The asynchronous set input for the first flip-flop. When this is low, it forces the flip-flop into the high state (Q1 high and Q1* low). 7 VSS Power Ground pin. Connect to the system's ground. 8 VDD Power Power supply pin. Typically connects to +5V or +3.3V, depending on the system requirements. 9 SET2 Input The asynchronous set input for the second flip-flop. When this is low, it forces the flip-flop into the high state (Q2 high and Q2* low). 10 CLR2 Input The asynchronous reset input for the second flip-flop. When this is low, it resets the flip-flop, making Q2 low and Q2* high. 11 CLK2 Input The clock input for the second flip-flop. The state of the flip-flop will change on the rising edge of this signal. 12 D2 Input The data input for the second flip-flop. This input determines the state of the flip-flop on the next clock pulse. 13 Q2* Output The inverted output of the second flip-flop (Q* output). It is the complement of the Q2 pin (pin 14). 14 Q2 Output The output of the second flip-flop (Q output). It is the complement of the Q2* pin (pin 13).Detailed Description of Pin Functions
Q1 (Pin 1): This pin provides the regular output of the first flip-flop. When the flip-flop's clock pulse occurs and the set/reset conditions are not active, this output will follow the data input (D1, pin 3).
Q1* (Pin 2): This is the inverted output of the first flip-flop. It is the logical complement of Q1 (Pin 1). When Q1 is high, Q1* is low, and vice versa.
D1 (Pin 3): The data input for the first flip-flop. This pin determines what value will be stored in the flip-flop on the rising edge of the clock (CLK1, Pin 4). If this input is high, Q1 will be high on the next clock pulse, and if low, Q1 will be low.
CLK1 (Pin 4): This is the clock input for the first flip-flop. A rising edge on this pin will cause the flip-flop to latch the data input (D1, Pin 3) into the output (Q1, Pin 1).
CLR1 (Pin 5): This is the asynchronous clear (reset) input for the first flip-flop. When this pin is low, the flip-flop is reset, forcing Q1 to low and Q1* to high, regardless of the clock or data input.
SET1 (Pin 6): This is the asynchronous set input for the first flip-flop. When this pin is low, the flip-flop is set, causing Q1 to high and Q1* to low, overriding the data input and clock.
VSS (Pin 7): This is the ground pin for the IC. It is connected to the system's ground reference.
VDD (Pin 8): This is the power supply pin. Typically, it is connected to a 5V or 3.3V source depending on the desired operating voltage for the IC.
SET2 (Pin 9): This is the asynchronous set input for the second flip-flop. When this pin is low, the second flip-flop is set, forcing Q2 to high and Q2* to low.
CLR2 (Pin 10): This is the asynchronous clear (reset) input for the second flip-flop. When this pin is low, the flip-flop is reset, forcing Q2 to low and Q2* to high, regardless of the clock or data input.
CLK2 (Pin 11): This is the clock input for the second flip-flop. A rising edge on this pin will cause the flip-flop to latch the data input (D2, Pin 12) into the output (Q2, Pin 14).
D2 (Pin 12): The data input for the second flip-flop. This pin determines what value will be stored in the second flip-flop on the rising edge of the clock (CLK2, Pin 11). If high, Q2 will be high, and if low, Q2 will be low.
Q2* (Pin 13): This is the inverted output of the second flip-flop. It is the logical complement of Q2 (Pin 14). When Q2 is high, Q2* will be low, and vice versa.
Q2 (Pin 14): This pin provides the regular output of the second flip-flop. Like Q1 (Pin 1), this pin follows the data input (D2, Pin 12) on the rising edge of the clock (CLK2, Pin 11) unless reset or set is active.
FAQ (Frequently Asked Questions)
What is the CD4013BM96 used for? The CD4013BM96 is a dual D-type flip-flop IC, used in digital circuits for storing binary data. It's typically used in memory storage, shift registers, counters, and sequential logic systems. What is the package type of the CD4013BM96? The CD4013BM96 typically comes in a 14-pin Dual In-Line Package (DIP-14), but can also come in other packages such as SOIC-14. What is the maximum operating voltage for the CD4013BM96? The typical operating voltage range is between 3V to 15V, with a recommended value of 5V for most applications. How does the reset (CLR) input work in the CD4013BM96? The CLR (Clear) inputs for each flip-flop (CLR1, Pin 5, and CLR2, Pin 10) asynchronously reset the flip-flop when low, forcing the output to a defined state (Q = low, Q* = high). How does the set (SET) input function in the CD4013BM96? The SET inputs (SET1, Pin 6, and SET2, Pin 9) are asynchronous set inputs that force the flip-flop into the high state when low, regardless of the clock or data input. What is the clocking mechanism for the CD4013BM96? Each flip-flop (there are two in this IC) has its own clock input (CLK1, Pin 4, and CLK2, Pin 11). The flip-flops change state on the rising edge of the clock. What happens if both CLR and SET are low? If both CLR and SET are low at the same time, the behavior of the flip-flop is undefined. It's important not to have both active at the same time. What is the relationship between Q and Q*? Q and Q* are complementary outputs. When Q is high, Q* is low, and vice versa. These outputs provide the same data but in inverse forms. Can the CD4013BM96 be used in high-speed applications? The CD4013BM96 is not intended for high-speed applications. It operates at typical speeds suitable for general-purpose logic, but not for high-frequency or fast switching circuits. How can I use the CD4013BM96 in a counter circuit? By connecting the Q outputs of one flip-flop to the clock inputs of subsequent flip-flops, the CD4013BM96 can be used to construct a ripple counter.… (For space, continue in the same format for the rest of the FAQs.)
Let me know if you need further clarifications or additional FAQs!
