q. 6.10: design a serial 2’s complementer with a shift register and a flip‐flop. the binary number
Published 4 years ago • 20K plays • Length 5:49
Download video MP4
Download video MP3
Similar videos
-
22:22
q. 6.9: two ways for implementing a serial adder (a b) is shown in section 6.2. it is necessary
-
6:21
q. 6.2: include a synchronous clear input to the register of fig. 6.2. the modified register will
-
6:35
q. 6.8: the serial adder of fig. 6.6 uses two four‐bit registers. register a holds the binary number
-
5:43
q. 6.1: include a 2‐input nand gate in the register of fig. 6.1 and connect the gate output to the c
-
13:42
q. 6.28: design a counter with the following repeated binary sequence 0, 1, 2, 4, 6 use d flip-flops
-
16:50
q. 6.27: design a counter with the following repeated binary sequence: 0, 1, 2, 3, 4, 5, 6. use jk
-
18:50
q. 5.16: design a sequential circuit with two d flip-flops a and b, and one input x_in
-
19:07
q. 6.22: for the circuit of fig. 6.28, give three alternatives for a mod‐12 counter
-
8:24
q. 6.23: design a timing circuit that provides an output signal that stays on for exactly eight cloc
-
14:54
q. 3.22: convert the logic diagram of circuit shown in fig. 4.4 into a multiple-level nand circuit.
-
23:32
q. 6.24: design a counter with t flip‐flops that goes through the following binary repeated sequence
-
24:45
q. 5.18: design a sequential circuit with two jk flip-flops a and b and two inputs e and f. if e = 0
-
10:10
q. 5.17: design a one-input, one-output serial 2’s complementer. the circuit accepts a string of
-
5:24
q. 7.17: the 32*6 rom, together with the 2^0 line, as shown in fig. p7.17, converts a six‐bit binary
-
4:45
q. 6.14: how many flip‐flop will be complemented in a 10‐bit binary ripple counter to reach the next
-
10:00
q. 6.7: draw the logic diagram of a four‐bit register with four d flip‐flops and four 4 × 1 multiple
-
12:05
4.10: design a four-bit combinational circuit 2’s complementer. (the output generates the 2’s
-
6:00
q. 6.6: design a four‐bit shift register with parallel load using d flip‐flops. there are two contro
-
5:58
q. 6.3: what is the difference between serial and parallel transfer? explain how to convert serial
-
10:22
q. 6.21: the counter of fig. 6.28 has two control inputs—load (l) and count (c)—and a data input,
-
5:02
q. 6.15: a flip‐flops has a 10 ns delay from the time the clock edge occurs to the time the output
Clip.africa.com - Privacy-policy