VIVA 5

VIVA 2

VIVA 1

VIVA 3

VIVA 4

BCD to excess 3 code using 1:8 DEMUX

BCD to excess 3 code using 1:8 DEMUX

cat ans

CAT ANS 2

CAT.: DUAL MUX

CAT ANS 3

CAT. : IMPLELEMENT FROM DECODER

CAT: implement the equation using decoder

CAT ANS 4

CAT: design the internal structure of Circuit given using NAND gates.

CAT ANS 5

CAT AND 6

16X1 MUX REG NO. SOP F'

16X1 MUX SOP F'

8X1 SOP BCD LINES

4X1 SOP BCD LINES

8X1 MUX SOP ABC LINE

4X1 MUX ABC LINE

8X1 ABD LINE MUX

8X1 MUX ACD LINES

4X1 ABD LINES MUX

4X1 MUX ACD LINES

8X1 MUX BCD LINES

BCD LINES MUX F'

ABC LINES MUX F'

ABC LINE 4X1 F'

ABD 8X1 LINE F'

ABD LINE 4 MUC F'

ACD 8X1 MUX LINE F'

ACD 4X1 LINE F'

8X1 BCD TO EXCESS 3 CODE CONVERTER

8X1 BCD TO EX 3 ABC LINE

8X1 BCD TO EX 3 ACD LINES

8X1 BCD TO EX3 ABD LINE

Registration no in seven segment display

W ACTIVE HIGH

Y HIGH

W ACTIVE LOW

X HIGH

BCD TO EX 3 4: 16 DECODER

Untitled

Class question 10 input or gate

Decade counter

HW 1 -3 I/P AND GATE USINF 4X1 MUX

HW 2 3 I/P AND GATE USING 2X4 DECODER

HW 3 CIRCUIT IMPLEMENTATION

HW 4 REPRESENT IN MUX

HW 4 FINAL CIRCUIT

HW 5 10 INPUT 0R GATE USING NAND

HW 5 10 INPUT OR GATE USING NOR

HW 5 10 INPUT OR GATE USING NOR

HW 4 FINAL CIRCUIT

HW 4 FINAL CIRCUIT

HW 6 4 bit input divisible by 5

DLCD LAB FAT

CAT: USING DECODER , DESIGN THE CLC

bcd to excesss 3 using 1:8 demux

16X1 MUX SOP TASK 3

8X1 BCD TO EX 3 BCD LINES

16X1 MUX BCD to Excess -3 code converter

CAT: IMPLEMENT USING NOR LOGIC

CAT: implement the equation using decoder